Package com.luciad.tea
Class TLcdRadarCoverageFactory
java.lang.Object
com.luciad.tea.TLcdRadarCoverageFactory
Deprecated.
This is a Factory class to create an ILcdLineOfSightCoverage based on radar contact.
To establish the range of the coverage all methods will require the following
operational parameters:
 aArcAngle
 aAngleStepSize
 aMaxRadius
 aMinverticalAngle
 aMaxverticalAngle

Constructor Summary

Method Summary
Modifier and TypeMethodDescriptioncreateRadarCoverage
(ILcdPoint aCenter, double aHeightAboveGround, double aStartAngle, double aArcAngle, double aAngleStepSize, double aMaxRadius, double aMinVerticalAngle, double aMaxVerticalAngle, ILcdRaster[] aRasters, double aKFactor) Deprecated.Creates a newILcdLineOfSightCoverage
representing the results of a radar lineofsight computation.createRadarCoverage
(ILcdPoint aCenterPoint, ILcdGeoReference aCenterPointReference, double aHeightAboveGround, double aAngleStart, double aAngleArc, double aAngleStep, double aRadiusMax, double aRadiusStep, double aMinVerticalAngle, double aMaxVerticalAngle, ALcdTerrainElevationProvider aTerrainElevationProvider, ILcdGeoReference aTargetReference, double aTargetPixelDensity, TLcdCoverageFillMode aFillMode, TLcdCoverageAltitudeMode aAltitudeMode, double aKFactor) Deprecated.Creates a newILcdExtendedLineOfSightCoverage
representing the results of a radar lineofsight computation.createRadarCoverage
(ILcdPoint aCenter, ILcdGeoReference aCenterPointReference, double aHeightAboveGround, double aStartAngle, double aArcAngle, double aAngleStepSize, double aMaxRadius, double aMinVerticalAngle, double aMaxVerticalAngle, ALcdTerrainElevationProvider aTerrainElevationProvider, ILcdGeoReference aTargetReference, double aTargetPixelDensity, double aSampleDensity, TLcdCoverageFillMode aFillMode, TLcdCoverageAltitudeMode aAltitudeMode, double aKFactor) Deprecated.Creates a newILcdExtendedLineOfSightCoverage
representing the results of a radar lineofsight computation.createRadarCoverage
(ILcdPoint aCenter, ILcdGeoReference aCenterPointReference, double aHeightAboveGround, double aStartAngle, double aArcAngle, double aMaxRadius, double aMinVerticalAngle, double aMaxVerticalAngle, ILcdRaster[] aRasters, ILcdGeoReference aRastersReference, ILcdGeoReference aTargetReference, TLcdCoverageFillMode aFillMode, TLcdCoverageAltitudeMode aAltitudeMode, double aKFactor) Deprecated.Convenience method for radar lineofsight computations over elevation data which consists entirely of raster data defined in one reference.createRadarCoverage
(ILcdPoint aCenter, ILcdGeoReference aCenterPointReference, double aHeightAboveGround, double aStartAngle, double aArcAngle, double aMaxRadius, double aMinVerticalAngle, double aMaxVerticalAngle, ALcdTerrainElevationProvider aTerrainElevationProvider, ILcdGeoReference aTargetReference, double aTargetPixelDensity, double aSampleDensity, double aRadialFraction, TLcdCoverageFillMode aFillMode, TLcdCoverageAltitudeMode aAltitudeMode, double aKFactor) Deprecated.Creates a newILcdExtendedLineOfSightCoverage
representing the results of a radar lineofsight computation.

Constructor Details

TLcdRadarCoverageFactory
public TLcdRadarCoverageFactory()Deprecated.


Method Details

createRadarCoverage
public ILcdLineOfSightCoverage createRadarCoverage(ILcdPoint aCenter, double aHeightAboveGround, double aStartAngle, double aArcAngle, double aAngleStepSize, double aMaxRadius, double aMinVerticalAngle, double aMaxVerticalAngle, ILcdRaster[] aRasters, double aKFactor) Deprecated.Creates a newILcdLineOfSightCoverage
representing the results of a radar lineofsight computation. If an object is only visible from a height larger than the maximum short value (Short.MAX_VALUE
), this maximum value will be set for the corresponding pixel. This method is assumes a center point and rasters defined in the geodetic WGS84 reference. See the images at the top of the class documentation to clarify the interpretation of the angles. Parameters:
aCenter
 TheILcdPoint
from where the computation is performed. Only x and ycoordinates are taken into account. Height is given by aHeightAboveGroundaHeightAboveGround
 The height above the ground (in meter) at the center point, from where the computation is performedaStartAngle
 The start angle in degrees as compass position (i.e. starting from 12 o'clock position, positive clockwise)aArcAngle
 The arc angle in degrees, positive clockwise. The arc angle should be positive.aAngleStepSize
 The angular discretization step size in degreesaMaxRadius
 The maximum radial extent in metersaMinVerticalAngle
 the minimum angle of the vertical extent in degrees,starting from 0 at the ground to 180 at zenith.aMaxVerticalAngle
 the maximum angle of the vertical extent in degrees,starting from 0 at the ground to 180 at zenith.aRasters
 The differentILcdRaster
that are taken into account in computing theILcdLineOfSightCoverage
. At least one of the rasters provided should contain the center of theILcdLineOfSightCoverage
. Otherwise,null
is returned as result of the factory method.aKFactor
 a factor indicating the reflection of radar waves on the atmosphere. For radar computations, values should be greater than 1, usually 4/3. If equal to 1 this will produce the same result as direct lineofsight computations. Returns:
 An
ILcdLineOfSightCoverage
containing the results of a radar lineofsight computation with the given parameters.

createRadarCoverage
public ILcdExtendedLineOfSightCoverage createRadarCoverage(ILcdPoint aCenter, ILcdGeoReference aCenterPointReference, double aHeightAboveGround, double aStartAngle, double aArcAngle, double aMaxRadius, double aMinVerticalAngle, double aMaxVerticalAngle, ILcdRaster[] aRasters, ILcdGeoReference aRastersReference, ILcdGeoReference aTargetReference, TLcdCoverageFillMode aFillMode, TLcdCoverageAltitudeMode aAltitudeMode, double aKFactor) Deprecated.Convenience method for radar lineofsight computations over elevation data which consists entirely of raster data defined in one reference. This method creates an elevation provider and finds the raster density at the center point and then passes on tocreateRadarCoverage(com.luciad.shape.ILcdPoint, com.luciad.reference.ILcdGeoReference, double, double, double, double, double, double, double, double, ALcdTerrainElevationProvider, com.luciad.reference.ILcdGeoReference, double, TLcdCoverageFillMode, TLcdCoverageAltitudeMode, double)
. The radial factor is equal at 1.0 at 70km, decreasing inversely with the max radius from there on. If an object is only visible from a height larger than the maximum short value (Short.MAX_VALUE
), this maximum value will be set for the corresponding pixel. Parameters:
aCenter
 theILcdPoint
from where the computation is performed. Only x and ycoordinates are taken into account. Height is given by aHeightAboveGround.aCenterPointReference
 the reference the center point is defined in.aHeightAboveGround
 the height above the ground (in meter) at the center point, from where the computation is performed.aStartAngle
 the start angle in degrees as compass position (i.e. starting from 12 o'clock position, positive clockwise).aArcAngle
 the arc angle in degrees, positive clockwise. The arc angle should be positive.aMaxRadius
 the maximum radial extent in meters.aMinVerticalAngle
 the minimum angle of the vertical extent in degrees,starting from 0 at the ground to 180 at zenith.aMaxVerticalAngle
 the maximum angle of the vertical extent in degrees,starting from 0 at the ground to 180 at zenith.aRasters
 the rasters representing the elevation data.aRastersReference
 the reference the rasters are defined in.aTargetReference
 the reference of the resulting lineofsight coverage.aFillMode
 how the raster should be filled. Possible choices are: maximum: the pixel value corresponds to the maximum value found in computations for that pixel.
 minimum: the pixel value corresponds to the minimum value found in computations for that pixel.
 nearest neighbor: the pixel value corresponds to the value computed nearest to the bottom left of the pixel location.
aAltitudeMode
 the altitude mode expresses whether the result should be interpreted as height above ground, above geoid or above ellipsoid. If null is passed, above ground is assumed.aKFactor
 a factor indicating the reflection of radar waves on the atmosphere. For radar computations, values should be greater than 1, usually 4/3. If equal to 1 this will produce the same result as direct lineofsight computations. Returns:
 An
ILcdExtendedLineOfSightCoverage
containing the results of a radar lineofsight computation with the given parameters.

createRadarCoverage
public ILcdExtendedLineOfSightCoverage createRadarCoverage(ILcdPoint aCenter, ILcdGeoReference aCenterPointReference, double aHeightAboveGround, double aStartAngle, double aArcAngle, double aMaxRadius, double aMinVerticalAngle, double aMaxVerticalAngle, ALcdTerrainElevationProvider aTerrainElevationProvider, ILcdGeoReference aTargetReference, double aTargetPixelDensity, double aSampleDensity, double aRadialFraction, TLcdCoverageFillMode aFillMode, TLcdCoverageAltitudeMode aAltitudeMode, double aKFactor) Deprecated.Creates a newILcdExtendedLineOfSightCoverage
representing the results of a radar lineofsight computation. This method computes a angle and radial step size from the given sample density and the radial fraction and then passes these parameters to the methodcreateRadarCoverage(com.luciad.shape.ILcdPoint, com.luciad.reference.ILcdGeoReference, double, double, double, double, double, double, double, double, ALcdTerrainElevationProvider, com.luciad.reference.ILcdGeoReference, double, TLcdCoverageFillMode, TLcdCoverageAltitudeMode, double)
. If an object is only visible from a height larger than the maximum short value (Short.MAX_VALUE
), this maximum value will be set for the corresponding pixel. Parameters:
aCenter
 theILcdPoint
from where the computation is performed. Only x and ycoordinates are taken into account. Height is given by aHeightAboveGround.aCenterPointReference
 the reference the center point is defined in.aHeightAboveGround
 the height above the ground (in meter) at the center point, from where the computation is performed.aStartAngle
 the start angle in degrees as compass position (i.e. starting from 12 o'clock position, positive clockwise).aArcAngle
 the arc angle in degrees, positive clockwise. The arc angle should be positive.aMaxRadius
 the maximum radial extent in meters.aMinVerticalAngle
 the minimum angle of the vertical extent in degrees,starting from 0 at the ground to 180 at zenith.aMaxVerticalAngle
 the maximum angle of the vertical extent in degrees,starting from 0 at the ground to 180 at zenith.aTerrainElevationProvider
 an elevation provider that is able to provide elevation information for all points within a distance aMaxRadius of the center point. It should support retrieving elevations in the WGS84 reference and the center point reference.aTargetReference
 the reference of the resulting lineofsight coverage.aTargetPixelDensity
 the pixel density the resulting lineofsight coverage should have. This is the average number of pixels in an area of 1 by 1 in model coordinates. Higher densities will lead to more detailed coverages of the area. Note that the result is bound by the density of the samples taken of the underlying terrain data (which depends on the radial and angular step sizes). The size occupied in memory by the coverage will increase linearly with this density.aSampleDensity
 the density of the data sampling, expressed in the target reference. This is the average number of samples that will be taken for an area equal to 1 square unit in model reference. For a geodetic target references this is the average number of samples for an area of 1 degree latitude by 1 degree longitude, for grid target references this is usually (depends on the unit of measure of the reference) the average number of samples per meter square. From this parameter the radial and angular step for sampling are computed. The higher the density, the more accurate the result will be, but computation time will de/increase linearly with sample density. Note that this does not influence the density of the resulting raster, a higher sampling density will provide more data for one pixel of the raster. Which of these value is chosen depends on the fill mode parameter. Reasonable values are usually the densities of the underlying rasters, provided they have the same reference as the target reference.aRadialFraction
 a number in the interval ]0,1] which indicates up until which fraction of aMaxradius every pixel of the result should be represented by at least one computation. Even when the fill mode is not equal to nearest neighbor it is guaranteed that there will be no 'holes' in the raster up until this fraction. Computation time will de/increase linearly with the radial fraction.aFillMode
 how the raster should be filled. Possible choices are: maximum: the pixel value corresponds to the maximum value found in computations for that pixel.
 minimum: the pixel value corresponds to the minimum value found in computations for that pixel.
 nearest neighbor: the pixel value corresponds to the value computed nearest to the bottom left of the pixel location.
aAltitudeMode
 the altitude mode expresses whether the result should be interpreted as height above ground, above geoid or above ellipsoid. If null is passed, above ground is assumed.aKFactor
 a factor indicating the reflection of radar waves on the atmosphere. For radar computations, values should be greater than 1, usually 4/3. If equal to 1 this will produce the same result as direct lineofsight computations. Returns:
 An
ILcdExtendedLineOfSightCoverage
containing the results of a radar lineofsight computation with the given parameters.

createRadarCoverage
public ILcdExtendedLineOfSightCoverage createRadarCoverage(ILcdPoint aCenter, ILcdGeoReference aCenterPointReference, double aHeightAboveGround, double aStartAngle, double aArcAngle, double aAngleStepSize, double aMaxRadius, double aMinVerticalAngle, double aMaxVerticalAngle, ALcdTerrainElevationProvider aTerrainElevationProvider, ILcdGeoReference aTargetReference, double aTargetPixelDensity, double aSampleDensity, TLcdCoverageFillMode aFillMode, TLcdCoverageAltitudeMode aAltitudeMode, double aKFactor) Deprecated.Creates a newILcdExtendedLineOfSightCoverage
representing the results of a radar lineofsight computation. This method computes a radial step size from the given sample density and then passes these parameters to the methodcreateRadarCoverage(com.luciad.shape.ILcdPoint, com.luciad.reference.ILcdGeoReference, double, double, double, double, double, double, double, double, ALcdTerrainElevationProvider, com.luciad.reference.ILcdGeoReference, double, TLcdCoverageFillMode, TLcdCoverageAltitudeMode, double)
. If an object is only visible from a height larger than the maximum short value (Short.MAX_VALUE
), this maximum value will be set for the corresponding pixel. Parameters:
aCenter
 theILcdPoint
from where the computation is performed. Only x and ycoordinates are taken into account. Height is given by aHeightAboveGround.aCenterPointReference
 the reference the center point is defined in.aHeightAboveGround
 the height above the ground (in meter) at the center point, from where the computation is performed.aStartAngle
 the start angle in degrees as compass position (i.e. starting from 12 o'clock position, positive clockwise).aArcAngle
 the arc angle in degrees, positive clockwise. The arc angle should be positive.aAngleStepSize
 the angular step in degrees, positive clockwise.aMaxRadius
 the maximum radial extent in meters.aMinVerticalAngle
 the minimum angle of the vertical extent in degrees,starting from 0 at the ground to 180 at zenith.aMaxVerticalAngle
 the maximum angle of the vertical extent in degrees,starting from 0 at the ground to 180 at zenith.aTerrainElevationProvider
 an elevation provider that is able to provide elevation information for all points within a distance aMaxRadius of the center point. It should support retrieving elevations in the WGS84 reference and the center point reference.aTargetReference
 the reference of the resulting lineofsight coverage.aTargetPixelDensity
 the pixel density the resulting lineofsight coverage should have. This is the average number of pixels in an area of 1 by 1 in model coordinates. Higher densities will lead to more detailed coverages of the area. Note that the result is bound by the density of the samples taken of the underlying terrain data (which depends on the radial and angular step sizes). The size occupied in memory by the coverage will increase linearly with this density.aSampleDensity
 the density of the data sampling, expressed in the target reference. This is the average number of samples that will be taken for an area equal to 1 square unit in model reference. For a geodetic target references this is the average number of samples for an area of 1 degree latitude by 1 degree longitude, for grid target references this is usually (depends on the unit of measure of the reference) the average number of samples per meter square. From this parameter the radial and angular step for sampling are computed. The higher the density, the more accurate the result will be, but computation time will de/increase linearly with sample density. Note that this does not influence the density of the resulting raster, a higher sampling density will provide more data for one pixel of the raster. Which of these value is chosen depends on the fill mode parameter. Reasonable values are usually the densities of the underlying rasters, provided they have the same reference as the target reference.aFillMode
 how the raster should be filled. Possible choices are: maximum: the pixel value corresponds to the maximum value found in computations for that pixel.
 minimum: the pixel value corresponds to the minimum value found in computations for that pixel.
 nearest neighbor: the pixel value corresponds to the value computed nearest to the bottom left of the pixel location.
aAltitudeMode
 the altitude mode expresses whether the result should be interpreted as height above ground, above geoid or above ellipsoid. If null is passed, above ground is assumed.aKFactor
 a factor indicating the reflection of radar waves on the atmosphere. For radar computations, values should be greater than 1, usually 4/3. If equal to 1 this will produce the same result as direct lineofsight computations. Returns:
 An
ILcdExtendedLineOfSightCoverage
containing the results of a radar lineofsight computation with the given parameters.

createRadarCoverage
public ILcdExtendedLineOfSightCoverage createRadarCoverage(ILcdPoint aCenterPoint, ILcdGeoReference aCenterPointReference, double aHeightAboveGround, double aAngleStart, double aAngleArc, double aAngleStep, double aRadiusMax, double aRadiusStep, double aMinVerticalAngle, double aMaxVerticalAngle, ALcdTerrainElevationProvider aTerrainElevationProvider, ILcdGeoReference aTargetReference, double aTargetPixelDensity, TLcdCoverageFillMode aFillMode, TLcdCoverageAltitudeMode aAltitudeMode, double aKFactor) Deprecated.Creates a newILcdExtendedLineOfSightCoverage
representing the results of a radar lineofsight computation. If an object is only visible from a height larger than the maximum short value (Short.MAX_VALUE
), this maximum value will be set for the corresponding pixel. See the images at the top of the class documentation to clarify the interpretation of the angles. Parameters:
aCenterPoint
 theILcdPoint
from where the computation is performed. Only x and ycoordinates are taken into account. Height is given by aHeightAboveGround.aCenterPointReference
 the reference the center point is defined in.aHeightAboveGround
 the height above the ground (in meter) at the center point, from where the computation is performed.aAngleStart
 the start angle in degrees as compass position (i.e. starting from 12 o'clock position, positive clockwise).aAngleArc
 the arc angle in degrees, positive clockwise. The arc angle should be positive.aAngleStep
 the angular step in degrees, positive clockwise.aRadiusMax
 the maximum radial extent in meters.aRadiusStep
 the radial step in meters.aMinVerticalAngle
 the minimum angle of the vertical extent in degrees,starting from 0 at the ground to 180 at zenith.aMaxVerticalAngle
 the maximum angle of the vertical extent in degrees,starting from 0 at the ground to 180 at zenith.aTerrainElevationProvider
 an elevation provider that is able to provide elevation information for all points within a distance aRadiusMax of the center point. It should support retrieving elevations in the WGS84 reference and the center point reference.aTargetReference
 the reference of the resulting lineofsight coverage.aTargetPixelDensity
 the pixel density the resulting lineofsight coverage should have. This is the average number of pixels in an area of 1 by 1 in model coordinates. Higher densities will lead to more detailed coverages of the area. Note that the result is bound by the density of the samples taken of the underlying terrain data (which depends on the radial and angular step sizes). The size occupied in memory by the coverage will increase linearly with this density.aFillMode
 how the raster should be filled. Possible choices are: maximum: the pixel value corresponds to the maximum value found in computations for that pixel.
 minimum: the pixel value corresponds to the minimum value found in computations for that pixel.
 nearest neighbor: the pixel value corresponds to the value computed nearest to the bottom left of the pixel location.
aAltitudeMode
 the altitude mode expresses whether the result should be interpreted as height above ground, above geoid or above ellipsoid. If null is passed, above ground is assumed.aKFactor
 a factor indicating the reflection of radar waves on the atmosphere. For radar computations, values should be greater than 1, usually 4/3. If equal to 1 this will produce the same result as direct lineofsight computations. Returns:
 An
ILcdExtendedLineOfSightCoverage
containing the results of a radar lineofsight computation with the given parameters.

TLcdLOSCoverageFactory
instead. Perform the following steps to replace this code with the new lineofsight coverage functionality.TLcdLOSCoverageFactory
.TLcdLOSRadarPropagationFunction
).TLcdLOSCoverage
) which contains the coverage for which the lineofsight should be created.TLcdLOSCoverageFactory.createLOSCoverageMatrix
to create a new lineofsight coverage matrix.TLcdLOSCoverageFactory.createLOSCoverageRaster
to create a new lineofsight coverage raster.