src.gov.nasa.worldwindx.examples.analytics.AnalyticSurface Maven / Gradle / Ivy
Go to download
Show more of this group Show more artifacts with this name
Show all versions of worldwindx Show documentation
Show all versions of worldwindx Show documentation
World Wind is a collection of components that interactively display 3D geographic information within Java applications or applets.
/*
* Copyright (C) 2012 United States Government as represented by the Administrator of the
* National Aeronautics and Space Administration.
* All Rights Reserved.
*/
package gov.nasa.worldwindx.examples.analytics;
import com.jogamp.common.nio.Buffers;
import gov.nasa.worldwind.WorldWind;
import gov.nasa.worldwind.geom.*;
import gov.nasa.worldwind.layers.Layer;
import gov.nasa.worldwind.pick.PickSupport;
import gov.nasa.worldwind.render.*;
import gov.nasa.worldwind.util.*;
import javax.media.opengl.*;
import java.awt.*;
import java.nio.*;
import java.util.*;
import java.util.List;
/**
* AnalyticSurface represents a connected grid of geographic locations, covering a specified {@link Sector} at a
* specified base altitude in meters. The number of grid locations is defined by the AnalyticSurface's dimensions. The
* default dimensions are (10, 10). Callers specify the dimensions by using one of the constructors
* accepting width and height, or by invoking {@link #setDimensions(int, int)}. Each grid
* point has the following set of attributes: - Scalar value : the grid point's height relative to the surface's
* base altitude, both in meters
- Color : the grid point's RGBA color components
Callers specify the
* attributes at each grid point by invoking {@link #setValues(Iterable)} with an {@link Iterable} of {@link
* GridPointAttributes}. Grid points are assigned attributes from this iterable staring at the upper left hand corner,
* and proceeding in row-first order across the grid. The iterable should contain at least width * height
* values, where width and height are the AnalyticSurface's grid dimensions. If the caller does not specify any
* GridPointAttributes, or the caller specified iterable contains too few values, the unassigned grid points are given
* default attributes: the default scalar value is 0, and the default color is {@link java.awt.Color#BLACK}.
*
* Surface Altitude
*
* AnalyticSurface's altitude can vary at each grid point. The altitude of each grid point depends on four properties:
* the altitude mode, the surface altitude, the vertical scale, and the scalar value from GridPointAttributes. The
* following table outlines how the altitude at each grid point is computed for each altitude mode:
*
* Altitude Mode Grid Point Altitude WorldWind.ABSOLUTE
* (default) surface altitude + (vertical scale * scalar value from GridPointAttributes) WorldWind.RELATIVE_TO_GROUND terrain height at grid point + surface altitude + (vertical scale *
* scalar value from GridPointAttributes) WorldWind.CLAMP_TO_GROUND terrain height at grid
* point
*
* Note that when the altitude mode is WorldWind.CLAMP_TO_GROUND the surface altitude, vertical scale, and the scalar
* value from GridPointAttributes are ignored. In this altitude mode only the Sector, dimensions, and color from
* GridPointAttributes are used.
*
* @author dcollins
* @version $Id: AnalyticSurface.java 1847 2014-02-18 00:32:16Z dcollins $
*/
public class AnalyticSurface implements Renderable, PreRenderable
{
/** GridPointAttributes defines the properties associated with a single grid point of an AnalyticSurface. */
public interface GridPointAttributes
{
/**
* Returns the scalar value associated with a grid point. By default, AnalyticSurface interprets this value as
* the grid point's height relative to the AnalyticSurface's base altitude, both in meters.
*
* @return the grid point's scalar value.
*/
double getValue();
/**
* Returns the {@link java.awt.Color} associated with a grid point. By default, AnalyticSurface interprets this
* Color as the RGBA components of a grid point's RGBA color.
*
* @return the grid point's RGB color components.
*/
java.awt.Color getColor();
}
protected static final double DEFAULT_ALTITUDE = 0d;
/** The default altitude mode. */
protected static final int DEFAULT_ALTITUDE_MODE = WorldWind.ABSOLUTE;
protected static final int DEFAULT_DIMENSION = 10;
protected static final double DEFAULT_VALUE = 0d;
protected static final Color DEFAULT_COLOR = Color.BLACK;
protected static final GridPointAttributes DEFAULT_GRID_POINT_ATTRIBUTES = createGridPointAttributes(
DEFAULT_VALUE, DEFAULT_COLOR);
/** The time period between surface regeneration when altitude mode is relative-to-ground. */
protected static final long RELATIVE_TO_GROUND_REGEN_PERIOD = 2000;
protected boolean visible = true;
protected Sector sector;
protected double altitude;
protected int altitudeMode = DEFAULT_ALTITUDE_MODE;
protected int width;
protected int height;
protected Iterable values;
protected double verticalScale = 1d;
protected AnalyticSurfaceAttributes surfaceAttributes = new AnalyticSurfaceAttributes();
protected Object pickObject;
protected Layer clientLayer;
// Runtime rendering state.
protected double[] extremeValues;
protected boolean expired = true;
protected boolean updateFailed;
protected Object globeStateKey;
protected long regenTime;
// Computed surface rendering properties.
protected Position referencePos;
protected Vec4 referencePoint;
protected RenderInfo surfaceRenderInfo;
protected AnalyticSurfaceObject clampToGroundSurface;
protected AnalyticSurfaceObject shadowSurface;
protected final PickSupport pickSupport = new PickSupport();
/**
* Constructs a new AnalyticSurface with the specified {@link Sector}, base altitude in meters, grid dimensions, and
* iterable of GridPointAttributes. The iterable should contain at least with * height non-null
* GridPointAttributes.
*
* @param sector the Sector which defines the surface's geographic region.
* @param altitude the base altitude to place the surface at, in meters.
* @param width the surface grid width, in number of grid points.
* @param height the surface grid height, in number of grid points.
* @param iterable the attributes associated with each grid point.
*
* @throws IllegalArgumentException if the sector is null, if the width is less than 1, if the height is less than
* 1, or if the iterable is null.
*/
public AnalyticSurface(Sector sector, double altitude, int width, int height,
Iterable iterable)
{
if (sector == null)
{
String message = Logging.getMessage("nullValue.SectorIsNull");
Logging.logger().severe(message);
throw new IllegalArgumentException(message);
}
if (width <= 0)
{
String message = Logging.getMessage("Geom.WidthInvalid", width);
Logging.logger().severe(message);
throw new IllegalArgumentException(message);
}
if (height <= 0)
{
String message = Logging.getMessage("Geom.HeightInvalid", width);
Logging.logger().severe(message);
throw new IllegalArgumentException(message);
}
if (iterable == null)
{
String message = Logging.getMessage("nullValue.IterableIsNull");
Logging.logger().severe(message);
throw new IllegalArgumentException(message);
}
this.sector = sector;
this.altitude = altitude;
this.width = width;
this.height = height;
this.values = iterable;
this.setExpired(true);
}
/**
* Constructs a new AnalyticSurface with the specified {@link Sector}, base altitude in meters, and grid dimensions.
* The new AnalyticSurface has the default {@link GridPointAttributes}.
*
* @param sector the Sector which defines the surface's geographic region.
* @param altitude the base altitude to place the surface at, in meters.
* @param width the surface grid width, in number of grid points.
* @param height the surface grid height, in number of grid points.
*
* @throws IllegalArgumentException if the sector is null, if the width is less than 1, or if the height is less
* than 1.
*/
public AnalyticSurface(Sector sector, double altitude, int width, int height)
{
this(sector, altitude, width, height, createDefaultValues(width * height));
}
/**
* Constructs a new AnalyticSurface with the specified {@link Sector} and base altitude in meters. The new
* AnalyticSurface has default dimensions of (10, 10), and default {@link GridPointAttributes}.
*
* @param sector the Sector which defines the surface's geographic region.
* @param altitude the base altitude to place the surface at, in meters.
*
* @throws IllegalArgumentException if the sector is null.
*/
public AnalyticSurface(Sector sector, double altitude)
{
this(sector, altitude, DEFAULT_DIMENSION, DEFAULT_DIMENSION);
}
/**
* Constructs a new AnalyticSurface with the specified grid dimensions. The new AnalyticSurface is has the default
* Sector {@link Sector#EMPTY_SECTOR}, the default altitude of 0 meters, and default {@link GridPointAttributes}.
*
* @param width the surface grid width, in number of grid points.
* @param height the surface grid height, in number of grid points.
*
* @throws IllegalArgumentException if the sector is null.
*/
public AnalyticSurface(int width, int height)
{
this(Sector.EMPTY_SECTOR, DEFAULT_ALTITUDE, width, height);
}
/**
* Constructs a new AnalyticSurface with the default Sector {@link Sector#EMPTY_SECTOR}, the default altitude of 0
* meters, default dimensions of (10, 10), and default {@link GridPointAttributes}.
*/
public AnalyticSurface()
{
this(DEFAULT_DIMENSION, DEFAULT_DIMENSION);
}
/**
* Returns true if the surface is visible in the scene, and false otherwise.
*
* @return true if the surface is visible in the scene, and false otherwise
*/
public boolean isVisible()
{
return this.visible;
}
/**
* Sets whether or not the surface is visible in the scene.
*
* @param visible true to make the surface visible, and false to make it hidden.
*/
public void setVisible(boolean visible)
{
this.visible = visible;
}
/**
* Returns the {@link Sector} defining the geographic boundary of this surface.
*
* @return this surface's geographic boundary, as a Sector.
*/
public Sector getSector()
{
return this.sector;
}
/**
* Sets this surface's geographic boundary, as a {@link Sector}.
*
* @param sector this surface's new geographic boundary, as a Sector.
*
* @throws IllegalArgumentException if the sector is null.
*/
public void setSector(Sector sector)
{
if (sector == null)
{
String message = Logging.getMessage("nullValue.SectorIsNull");
Logging.logger().severe(message);
throw new IllegalArgumentException(message);
}
this.sector = sector;
this.setExpired(true);
}
/**
* Returns this surface's base altitude, in meters.
*
* @return this surface's base altitude, in meters.
*
* @see #setAltitude(double)
*/
public double getAltitude()
{
return altitude;
}
/**
* Sets this surface's base altitude, in meters. See the AnalyticSurface class documentation for information on how
* the altitude is interpreted.
*
* @param altitude the new base altitude, in meters.
*/
public void setAltitude(double altitude)
{
this.altitude = altitude;
this.setExpired(true);
}
/**
* Returns the surface's altitude mode, one of {@link gov.nasa.worldwind.WorldWind#CLAMP_TO_GROUND}, {@link
* gov.nasa.worldwind.WorldWind#RELATIVE_TO_GROUND}, or {@link gov.nasa.worldwind.WorldWind#ABSOLUTE}.
*
* @return the surface's altitude mode.
*
* @see #setAltitudeMode(int)
*/
public int getAltitudeMode()
{
return altitudeMode;
}
/**
* Specifies the surface's altitude mode, one of {@link gov.nasa.worldwind.WorldWind#CLAMP_TO_GROUND}, {@link
* gov.nasa.worldwind.WorldWind#RELATIVE_TO_GROUND}, or {@link gov.nasa.worldwind.WorldWind#ABSOLUTE}. The altitude
* mode {@link gov.nasa.worldwind.WorldWind#CONSTANT} is not supported and {@link
* gov.nasa.worldwind.WorldWind#ABSOLUTE} is used if specified. See the AnalyticSurface class documentation for
* information on how the altitude mode is interpreted.
*
* @param altitudeMode the surface's altitude mode.
*/
public void setAltitudeMode(int altitudeMode)
{
this.altitudeMode = altitudeMode;
this.setExpired(true);
}
/**
* Returns the number of horizontal and vertical points composing this surface as an array with two values. The
* value at index 0 indicates the grid width, and the value at index 1 indicates the grid height.
*
* @return the dimensions of this surface's grid.
*/
public int[] getDimensions()
{
return new int[] {this.width, this.height};
}
/**
* Sets the number of horizontal and vertical points composing this surface.
*
* @param width the new grid width.
* @param height the new grid height.
*
* @throws IllegalArgumentException if either width or heigth are less than 1.
*/
public void setDimensions(int width, int height)
{
if (width <= 0)
{
String message = Logging.getMessage("Geom.WidthInvalid", width);
Logging.logger().severe(message);
throw new IllegalArgumentException(message);
}
if (height <= 0)
{
String message = Logging.getMessage("Geom.HeightInvalid", height);
Logging.logger().severe(message);
throw new IllegalArgumentException(message);
}
this.width = width;
this.height = height;
this.setExpired(true);
}
/**
* Returns the surface's iterable of {@link GridPointAttributes}. See {@link #setValues(Iterable)} for details on
* how this iterable is interpreted by AnalyticSurface.
*
* @return this surface's GridPointAttributes.
*/
public Iterable getValues()
{
return this.values;
}
/**
* Sets this surface's iterable of {@link GridPointAttributes}. Grid points are assigned attributes from this
* iterable staring at the upper left hand corner, and proceeding in row-first order across the grid. The iterable
* should contain at least width * height values, where width and height are the AnalyticSurface's grid
* dimensions. If the iterable contains too few values, the unassigned grid points are given default attributes: the
* default scalar value is 0, and the default color is {@link java.awt.Color#BLACK}.
*
* @param iterable the new grid point attributes.
*
* @throws IllegalArgumentException if the iterable is null.
*/
public void setValues(Iterable iterable)
{
if (iterable == null)
{
String message = Logging.getMessage("nullValue.IterableIsNull");
Logging.logger().severe(message);
throw new IllegalArgumentException(message);
}
this.values = iterable;
this.extremeValues = computeExtremeValues(iterable);
this.setExpired(true);
}
/**
* Returns the scale applied to the value at each grid point.
*
* @return the surface's vertical scale coefficient.
*/
public double getVerticalScale()
{
return this.verticalScale;
}
/**
* Sets the scale applied to the value at each grid point. Before rendering, this value is applied to each grid
* points scalar value, thus increasing or decreasing it's height relative to the surface's base altitude, both in
* meters.
*
* @param scale the surface's vertical scale coefficient.
*/
public void setVerticalScale(double scale)
{
this.verticalScale = scale;
this.setExpired(true);
}
/**
* Returns a copy of the rendering attributes associated with this surface. Modifying the contents of the returned
* reference has no effect on this surface. In order to make an attribute change take effect, invoke {@link
* #setSurfaceAttributes(AnalyticSurfaceAttributes)} with the modified attributes.
*
* @return a copy of this surface's rendering attributes.
*/
public AnalyticSurfaceAttributes getSurfaceAttributes()
{
return this.surfaceAttributes.copy();
}
/**
* Sets the rendering attributes associated with this surface. The caller cannot assume that modifying the attribute
* reference after calling setSurfaceAttributes() will have any effect, as the implementation may defensively copy
* the attribute reference. In order to make an attribute change take effect, invoke
* setSurfaceAttributes(AnalyticSurfaceAttributes) again with the modified attributes.
*
* @param attributes this surface's new rendering attributes.
*
* @throws IllegalArgumentException if attributes is null.
*/
public void setSurfaceAttributes(AnalyticSurfaceAttributes attributes)
{
if (attributes == null)
{
String message = Logging.getMessage("nullValue.AttributesIsNull");
Logging.logger().severe(message);
throw new IllegalArgumentException(message);
}
this.surfaceAttributes = attributes.copy();
this.setExpired(true);
}
/**
* Returns the object which is associated with this surface during picking. A null value is permitted and indicates
* that the surface itself will be the object returned during picking.
*
* @return this surface's pick object.
*/
public Object getPickObject()
{
return this.pickObject;
}
/**
* Sets the object associated with this surface during picking. A null value is permitted and indicates that the
* surface itself will be the object returned during picking.
*
* @param pickObject the object to associated with this surface during picking. A null value is permitted and
* indicates that the surface itself will be the object returned during picking.
*/
public void setPickObject(Object pickObject)
{
this.pickObject = pickObject;
}
/**
* Returns the layer associated with this surface during picking.
*
* @return this surface's pick layer.
*/
public Layer getClientLayer()
{
return this.clientLayer;
}
/**
* Sets the layer associated with this surface during picking. A null value is permitted, and indicates that no
* layer is associated with this surface.
*
* @param layer this surface's pick layer.
*/
public void setClientLayer(Layer layer)
{
this.clientLayer = layer;
}
/**
* {@inheritDoc}
*
* @param dc
*/
public void preRender(DrawContext dc)
{
if (dc == null)
{
String message = Logging.getMessage("nullValue.DrawContextIsNull");
Logging.logger().severe(message);
throw new IllegalArgumentException(message);
}
if (!this.isVisible())
return;
if (!this.intersectsFrustum(dc))
return;
if (this.isExpired(dc))
this.update(dc);
if (this.isExpired(dc))
return;
this.preRenderSurfaceObjects(dc);
}
/**
* {@inheritDoc}
*
* @param dc the DrawContext to be used
*/
public void render(DrawContext dc)
{
if (dc == null)
{
String message = Logging.getMessage("nullValue.DrawContextIsNull");
Logging.logger().severe(message);
throw new IllegalArgumentException(message);
}
if (!this.isVisible())
return;
if (!intersectsFrustum(dc))
return;
if (this.isExpired(dc))
this.update(dc);
if (this.isExpired(dc))
return;
this.makeOrderedRenderable(dc);
this.drawSurfaceObjects(dc);
}
/**
* Returns this surface's extent in model coordinates.
*
* @param dc the current DrawContext.
*
* @return this surface's extent in the specified DrawContext.
*
* @throws IllegalArgumentException if the DrawContext is null.
*/
public Extent getExtent(DrawContext dc)
{
if (dc == null)
{
String message = Logging.getMessage("nullValue.DrawContextIsNull");
Logging.logger().severe(message);
throw new IllegalArgumentException(message);
}
if (this.getAltitudeMode() == WorldWind.CLAMP_TO_GROUND)
{
return Sector.computeBoundingBox(dc.getGlobe(), dc.getVerticalExaggeration(), this.getSector());
}
else
{
double minAltitude = this.getAltitude();
double maxAltitude = this.getAltitude();
double[] minAndMaxElevations = dc.getGlobe().getMinAndMaxElevations(this.getSector());
if (this.extremeValues != null)
{
minAltitude = this.getAltitude() + this.getVerticalScale() * this.extremeValues[0];
maxAltitude = this.getAltitude() + this.getVerticalScale() * this.extremeValues[1];
}
if (minAndMaxElevations != null)
{
if (this.getAltitudeMode() == WorldWind.RELATIVE_TO_GROUND)
{
minAltitude -= minAndMaxElevations[0];
maxAltitude += minAndMaxElevations[1];
}
if (minAltitude > minAndMaxElevations[0])
minAltitude = minAndMaxElevations[0];
if (maxAltitude < minAndMaxElevations[1])
maxAltitude = minAndMaxElevations[1];
}
return Sector.computeBoundingBox(dc.getGlobe(), dc.getVerticalExaggeration(), this.getSector(),
minAltitude, maxAltitude);
}
}
/**
* Test if this AnalyticSurface intersects the specified draw context's frustum. During picking mode, this tests
* intersection against all of the draw context's pick frustums. During rendering mode, this tests intersection
* against the draw context's viewing frustum.
*
* @param dc the current draw context.
*
* @return true if this AnalyticSurface intersects the draw context's frustum; false otherwise.
*/
protected boolean intersectsFrustum(DrawContext dc)
{
// A null extent indicates an object which has no location.
Extent extent = this.getExtent(dc);
if (extent == null)
return false;
// Test this object's extent against the pick frustum list
if (dc.isPickingMode())
return dc.getPickFrustums().intersectsAny(extent);
// Test this object's extent against the viewing frustum.
return dc.getView().getFrustumInModelCoordinates().intersects(extent);
}
//**************************************************************//
//******************** Attribute Construction ****************//
//**************************************************************//
/**
* Returns the minimum and maximum values in the specified iterable of {@link GridPointAttributes}. Values
* equivalent to the specified missingDataSignal are ignored. This returns null if the iterable is
* empty or contains only missing values.
*
* @param iterable the GridPointAttributes to search for the minimum and maximum value.
* @param missingDataSignal the number indicating a specific value to ignore.
*
* @return an array containing the minimum value in index 0 and the maximum value in index 1, or null if the
* iterable is empty or contains only missing values.
*
* @throws IllegalArgumentException if the iterable is null.
*/
public static double[] computeExtremeValues(Iterable iterable,
double missingDataSignal)
{
if (iterable == null)
{
String message = Logging.getMessage("nullValue.IterableIsNull");
Logging.logger().severe(message);
throw new IllegalArgumentException(message);
}
double minValue = Double.MAX_VALUE;
double maxValue = -Double.MAX_VALUE;
for (GridPointAttributes attr : iterable)
{
double value = attr.getValue();
if (Double.compare(value, missingDataSignal) == 0)
continue;
if (minValue > value)
minValue = value;
if (maxValue < value)
maxValue = value;
}
if (minValue == Double.MAX_VALUE || minValue == -Double.MIN_VALUE)
return null;
return new double[] {minValue, maxValue};
}
/**
* Returns the minimum and maximum values in the specified iterable of {@link GridPointAttributes}. Values
* equivalent to Double.NaN are ignored. This returns null if the buffer is empty or contains only NaN
* values.
*
* @param iterable the GridPointAttributes to search for the minimum and maximum value.
*
* @return an array containing the minimum value in index 0 and the maximum value in index 1, or null if the
* iterable is empty or contains only NaN values.
*
* @throws IllegalArgumentException if the iterable is null.
*/
public static double[] computeExtremeValues(Iterable iterable)
{
if (iterable == null)
{
String message = Logging.getMessage("nullValue.IterableIsNull");
Logging.logger().severe(message);
throw new IllegalArgumentException(message);
}
return computeExtremeValues(iterable, Double.NaN);
}
/**
* Returns a new instance of {@link GridPointAttributes} with the specified value and color.
*
* @param value the new GridPointAttributes' value.
* @param color the new GridPointAttributes' color.
*
* @return a new GridPointAttributes defined by the specified value and color.
*/
public static GridPointAttributes createGridPointAttributes(final double value, final java.awt.Color color)
{
return new AnalyticSurface.GridPointAttributes()
{
public double getValue()
{
return value;
}
public Color getColor()
{
return color;
}
};
}
/**
* Returns a new instance of {@link GridPointAttributes} with a Color computed from the specified value and value
* range. The color's RGB components are computed by mapping value's relative position in the range [minValue,
* maxValue] to the range of color hues [minHue, maxHue]. The color's Alpha component is
* computed by mapping the values's relative position in the range [minValue, minValue + (maxValue - minValue)
* / 10] to the range [0, 1]. This has the effect of interpolating hue and alpha based on the
* grid point value.
*
* @param value the new GridPointAttributes' value.
* @param minValue the minimum value.
* @param maxValue the maximum value.
* @param minHue the mimimum color hue, corresponding to the minimum value.
* @param maxHue the maximum color hue, corresponding to the maximum value.
*
* @return a new GridPointAttributes defined by the specified value, value range, and color hue range.
*/
public static AnalyticSurface.GridPointAttributes createColorGradientAttributes(final double value,
double minValue, double maxValue, double minHue, double maxHue)
{
double hueFactor = WWMath.computeInterpolationFactor(value, minValue, maxValue);
Color color = Color.getHSBColor((float) WWMath.mixSmooth(hueFactor, minHue, maxHue), 1f, 1f);
double opacity = WWMath.computeInterpolationFactor(value, minValue, minValue + (maxValue - minValue) * 0.1);
Color rgbaColor = new Color(color.getRed(), color.getGreen(), color.getBlue(), (int) (255 * opacity));
return createGridPointAttributes(value, rgbaColor);
}
/**
* Returns a new iterable populated with the default {@link GridPointAttributes}. The default GridPointAttributes
* have a value of 0, and the color {@link java.awt.Color#BLACK}.
*
* @param count the desired number of GridPointAttributes to return.
*
* @return an iterable containing count default GridPointAttributes.
*/
public static Iterable createDefaultValues(int count)
{
ArrayList list = new ArrayList(count);
Collections.fill(list, DEFAULT_GRID_POINT_ATTRIBUTES);
return list;
}
/**
* Returns a new iterable populated with {@link GridPointAttributes} computed by invoking {@link
* #createColorGradientAttributes(double, double, double, double, double)} for each double value in the speicfied
* {@link BufferWrapper}. Values equivalent to the specified missingDataSignal are replaced with the
* specified minValue.
*
* @param values the buffer of values.
* @param missingDataSignal the number indicating a specific value to ignore.
* @param minValue the minimum value.
* @param maxValue the maximum value.
* @param minHue the mimimum color hue, corresponding to the minimum value.
* @param maxHue the maximum color hue, corresponding to the maximum value.
*
* @return an iiterable GridPointAttributes defined by the specified buffer of values.
*/
public static Iterable createColorGradientValues(
BufferWrapper values, double missingDataSignal, double minValue, double maxValue, double minHue, double maxHue)
{
if (values == null)
{
String message = Logging.getMessage("nullValue.BufferIsNull");
Logging.logger().severe(message);
throw new IllegalArgumentException(message);
}
ArrayList attributesList
= new ArrayList();
for (int i = 0; i < values.length(); i++)
{
double value = values.getDouble(i);
if (Double.compare(value, missingDataSignal) == 0)
value = minValue;
attributesList.add(createColorGradientAttributes(value, minValue, maxValue, minHue, maxHue));
}
return attributesList;
}
//**************************************************************//
//******************** Surface Rendering *********************//
//**************************************************************//
protected void makeOrderedRenderable(DrawContext dc)
{
// Clamp-to-ground analytic surface is drawn entirely by surface objects prepared during
// preRenderSurfaceObjects().
if (this.getAltitudeMode() == WorldWind.CLAMP_TO_GROUND)
return;
Extent extent = this.getExtent(dc);
double eyeDistance = dc.getView().getEyePoint().distanceTo3(extent.getCenter()) - extent.getRadius();
if (eyeDistance < 1)
eyeDistance = 1;
dc.addOrderedRenderable(new OrderedSurface(this, eyeDistance));
}
protected void drawOrderedRenderable(DrawContext dc)
{
this.beginDrawing(dc);
try
{
this.doDrawOrderedRenderable(dc);
}
finally
{
this.endDrawing(dc);
}
}
protected void doDrawOrderedRenderable(DrawContext dc)
{
this.bind(dc);
// If the outline and interior will be drawn, then draw the outline color, but do not affect the depth
// buffer. When the interior is drawn, it will draw on top of these colors, and the outline will be visible
// behind the potentially transparent interior.
if (this.surfaceAttributes.isDrawOutline() && this.surfaceAttributes.isDrawInterior())
{
dc.getGL().glDepthMask(false);
this.drawOutline(dc);
dc.getGL().glDepthMask(true);
}
if (this.surfaceAttributes.isDrawInterior())
this.drawInterior(dc);
if (this.surfaceAttributes.isDrawOutline())
this.drawOutline(dc);
}
protected void bind(DrawContext dc)
{
GL2 gl = dc.getGL().getGL2(); // GL initialization checks for GL2 compatibility.
gl.glEnableClientState(GL2.GL_VERTEX_ARRAY);
gl.glVertexPointer(3, GL.GL_FLOAT, 0, this.surfaceRenderInfo.cartesianVertexBuffer);
if (!dc.isPickingMode())
{
gl.glEnableClientState(GL2.GL_NORMAL_ARRAY);
gl.glNormalPointer(GL.GL_FLOAT, 0, this.surfaceRenderInfo.cartesianNormalBuffer);
gl.glEnableClientState(GL2.GL_COLOR_ARRAY);
gl.glColorPointer(4, GL.GL_UNSIGNED_BYTE, 0, this.surfaceRenderInfo.colorBuffer);
}
}
protected void drawInterior(DrawContext dc)
{
GL2 gl = dc.getGL().getGL2(); // GL initialization checks for GL2 compatibility.
if (!dc.isPickingMode())
{
// Bind the shapes vertex colors as the diffuse material parameter.
gl.glEnable(GL2.GL_COLOR_MATERIAL);
gl.glColorMaterial(GL2.GL_FRONT_AND_BACK, GL2.GL_DIFFUSE);
this.surfaceAttributes.getInteriorMaterial().apply(gl, GL2.GL_FRONT_AND_BACK,
(float) this.surfaceAttributes.getInteriorOpacity());
}
gl.glCullFace(GL.GL_FRONT);
this.surfaceRenderInfo.drawInterior(dc);
gl.glCullFace(GL.GL_BACK);
this.surfaceRenderInfo.drawInterior(dc);
}
protected void drawOutline(DrawContext dc)
{
GL2 gl = dc.getGL().getGL2(); // GL initialization checks for GL2 compatibility.
if (!dc.isPickingMode())
{
gl.glEnable(GL.GL_LINE_SMOOTH);
// Unbind the shapes vertex colors as the diffuse material parameter.
gl.glDisable(GL2.GL_LIGHTING);
gl.glDisable(GL2.GL_COLOR_MATERIAL);
// Set the outline color.
Color color = this.surfaceAttributes.getOutlineMaterial().getDiffuse();
// Convert the floating point opacity from the range [0, 1] to the unsigned byte range [0, 255].
int alpha = (int) (255 * this.surfaceAttributes.getOutlineOpacity() + 0.5);
gl.glColor4ub((byte) color.getRed(), (byte) color.getGreen(), (byte) color.getBlue(), (byte) alpha);
gl.glDisableClientState(GL2.GL_COLOR_ARRAY);
}
gl.glLineWidth((float) this.surfaceAttributes.getOutlineWidth());
this.surfaceRenderInfo.drawOutline(dc);
if (!dc.isPickingMode())
{
gl.glEnable(GL2.GL_LIGHTING);
gl.glDisable(GL.GL_LINE_SMOOTH);
gl.glDisable(GL2.GL_LINE_STIPPLE);
gl.glEnableClientState(GL2.GL_COLOR_ARRAY);
}
}
protected void beginDrawing(DrawContext dc)
{
GL2 gl = dc.getGL().getGL2(); // GL initialization checks for GL2 compatibility.
gl.glPushAttrib(
GL2.GL_COLOR_BUFFER_BIT // for alpha test func and ref, blend func
| GL2.GL_CURRENT_BIT
| GL2.GL_DEPTH_BUFFER_BIT
| GL2.GL_LINE_BIT // for line width
| GL2.GL_POLYGON_BIT // for cull face
| (!dc.isPickingMode() ? GL2.GL_LIGHTING_BIT : 0) // for lighting.
| (!dc.isPickingMode() ? GL2.GL_TRANSFORM_BIT : 0)); // for normalize state.
// Enable the alpha test.
gl.glEnable(GL2.GL_ALPHA_TEST);
gl.glAlphaFunc(GL2.GL_GREATER, 0.0f);
gl.glEnable(GL.GL_CULL_FACE);
if (dc.isPickingMode())
{
Color color = dc.getUniquePickColor();
this.pickSupport.addPickableObject(color.getRGB(),
(this.getPickObject() != null) ? this.getPickObject() : this,
new Position(this.sector.getCentroid(), this.altitude), false);
gl.glColor3ub((byte) color.getRed(), (byte) color.getGreen(), (byte) color.getBlue());
}
else
{
// Enable blending in non-premultiplied color mode. Premultiplied colors don't work with GL fixed
// functionality lighting.
gl.glEnable(GL.GL_BLEND);
OGLUtil.applyBlending(gl, false);
// Enable lighting with GL_LIGHT1.
gl.glDisable(GL2.GL_COLOR_MATERIAL);
gl.glDisable(GL2.GL_LIGHT0);
gl.glEnable(GL2.GL_LIGHTING);
gl.glEnable(GL2.GL_LIGHT1);
gl.glEnable(GL2.GL_NORMALIZE);
// Configure the lighting model for two-sided smooth shading.
gl.glLightModeli(GL2.GL_LIGHT_MODEL_LOCAL_VIEWER, GL.GL_TRUE);
gl.glLightModeli(GL2.GL_LIGHT_MODEL_TWO_SIDE, GL.GL_TRUE);
gl.glShadeModel(GL2.GL_SMOOTH);
// Configure GL_LIGHT1 as a white light eminating from the viewer's eye point.
OGLUtil.applyLightingDirectionalFromViewer(gl, GL2.GL_LIGHT1, new Vec4(1.0, 0.5, 1.0).normalize3());
}
dc.getView().pushReferenceCenter(dc, this.referencePoint);
}
protected void endDrawing(DrawContext dc)
{
GL2 gl = dc.getGL().getGL2(); // GL initialization checks for GL2 compatibility.
dc.getView().popReferenceCenter(dc);
gl.glPopAttrib();
// Restore default GL client vertex array state.
gl.glDisableClientState(GL2.GL_VERTEX_ARRAY);
gl.glDisableClientState(GL2.GL_COLOR_ARRAY);
gl.glDisableClientState(GL2.GL_NORMAL_ARRAY);
}
//**************************************************************//
//******************** Surface Construction ******************//
//**************************************************************//
protected boolean isExpired(DrawContext dc)
{
if (this.expired)
return true;
if (this.getAltitudeMode() == WorldWind.RELATIVE_TO_GROUND)
{
if (dc.getFrameTimeStamp() - this.regenTime > RELATIVE_TO_GROUND_REGEN_PERIOD)
return true;
}
if (this.getAltitudeMode() == WorldWind.RELATIVE_TO_GROUND ||
this.getAltitudeMode() == WorldWind.ABSOLUTE)
{
Object gsk = dc.getGlobe().getStateKey(dc);
if (this.globeStateKey != null ? !this.globeStateKey.equals(gsk) : gsk != null)
return true;
}
return false;
}
protected void setExpired(boolean expired)
{
this.expired = expired;
if (this.expired)
{
if (this.clampToGroundSurface != null)
this.clampToGroundSurface.markAsModified();
if (this.shadowSurface != null)
this.shadowSurface.markAsModified();
}
}
protected void update(DrawContext dc)
{
if (this.updateFailed)
return;
try
{
this.doUpdate(dc);
this.setExpired(false);
this.globeStateKey = dc.getGlobe().getStateKey(dc);
this.regenTime = dc.getFrameTimeStamp();
}
catch (Exception e)
{
String message = Logging.getMessage("generic.ExceptionWhileUpdating", this);
Logging.logger().log(java.util.logging.Level.SEVERE, message, e);
this.updateFailed = true;
}
}
protected void doUpdate(DrawContext dc)
{
this.referencePos = new Position(this.sector.getCentroid(), this.altitude);
this.referencePoint = dc.getGlobe().computePointFromPosition(this.referencePos);
if (this.surfaceRenderInfo == null ||
this.surfaceRenderInfo.getGridWidth() != this.width ||
this.surfaceRenderInfo.getGridHeight() != this.height)
{
this.surfaceRenderInfo = new RenderInfo(this.width, this.height);
}
this.updateSurfacePoints(dc, this.surfaceRenderInfo);
this.updateSurfaceNormals(this.surfaceRenderInfo);
}
protected void updateSurfacePoints(DrawContext dc, RenderInfo outRenderInfo)
{
Iterator iter = this.values.iterator();
double latStep = -this.sector.getDeltaLatDegrees() / (double) (this.height - 1);
double lonStep = this.sector.getDeltaLonDegrees() / (double) (this.width - 1);
double lat = this.sector.getMaxLatitude().degrees;
for (int y = 0; y < this.height; y++)
{
double lon = this.sector.getMinLongitude().degrees;
for (int x = 0; x < this.width; x++)
{
GridPointAttributes attr = iter.hasNext() ? iter.next() : null;
this.updateNextSurfacePoint(dc, Angle.fromDegrees(lat), Angle.fromDegrees(lon), attr, outRenderInfo);
lon += lonStep;
}
lat += latStep;
}
outRenderInfo.cartesianVertexBuffer.rewind();
outRenderInfo.geographicVertexBuffer.rewind();
outRenderInfo.colorBuffer.rewind();
outRenderInfo.shadowColorBuffer.rewind();
}
protected void updateNextSurfacePoint(DrawContext dc, Angle lat, Angle lon, GridPointAttributes attr,
RenderInfo outRenderInfo)
{
Color color = (attr != null) ? attr.getColor() : DEFAULT_COLOR;
// Convert the floating point opacity from the range [0, 1] to the unsigned byte range [0, 255].
int alpha = (int) (color.getAlpha() * this.surfaceAttributes.getInteriorOpacity() + 0.5);
outRenderInfo.colorBuffer.put((byte) color.getRed());
outRenderInfo.colorBuffer.put((byte) color.getGreen());
outRenderInfo.colorBuffer.put((byte) color.getBlue());
outRenderInfo.colorBuffer.put((byte) alpha);
// We need geographic vertices if the surface's altitude mode is clamp-to-ground, or if we're drawing the
// surface's shadow.
if (this.getAltitudeMode() == WorldWind.CLAMP_TO_GROUND || this.surfaceAttributes.isDrawShadow())
{
outRenderInfo.geographicVertexBuffer.put((float) (lon.degrees - this.referencePos.getLongitude().degrees));
outRenderInfo.geographicVertexBuffer.put((float) (lat.degrees - this.referencePos.getLatitude().degrees));
outRenderInfo.geographicVertexBuffer.put(1);
}
// We need cartesian vertices if the surface's altitude mode is absolute or relative-to-ground.
if (this.getAltitudeMode() != WorldWind.CLAMP_TO_GROUND) // WorldWind.ABSOLUTE or WorldWind.RELATIVE_TO_GROUND
{
Vec4 point = this.computeSurfacePoint(dc, lat, lon, (attr != null ? attr.getValue() : DEFAULT_VALUE));
outRenderInfo.cartesianVertexBuffer.put((float) (point.x - this.referencePoint.x));
outRenderInfo.cartesianVertexBuffer.put((float) (point.y - this.referencePoint.y));
outRenderInfo.cartesianVertexBuffer.put((float) (point.z - this.referencePoint.z));
}
// We need shadow colors if the surface's shadow is enabled.
if (this.surfaceAttributes.isDrawShadow())
{
// Convert the floating point opacity from the range [0, 1] to the unsigned byte range [0, 255].
int shadowAlpha = (int) (alpha * this.surfaceAttributes.getShadowOpacity() + 0.5);
outRenderInfo.shadowColorBuffer.put((byte) 0);
outRenderInfo.shadowColorBuffer.put((byte) 0);
outRenderInfo.shadowColorBuffer.put((byte) 0);
outRenderInfo.shadowColorBuffer.put((byte) shadowAlpha);
}
}
protected Vec4 computeSurfacePoint(DrawContext dc, Angle lat, Angle lon, double value)
{
double offset = this.altitude + this.verticalScale * value;
if (this.getAltitudeMode() == WorldWind.RELATIVE_TO_GROUND)
{
return dc.computeTerrainPoint(lat, lon, dc.getVerticalExaggeration() * offset);
}
else // WorldWind.ABSOLUTE
{
return dc.getGlobe().computePointFromPosition(lat, lon, offset);
}
}
protected void updateSurfaceNormals(RenderInfo outRenderInfo)
{
WWMath.computeNormalsForIndexedTriangleStrip(outRenderInfo.interiorIndexBuffer,
outRenderInfo.cartesianVertexBuffer, outRenderInfo.cartesianNormalBuffer);
}
//**************************************************************//
//******************** Internal Support Classes **************//
//**************************************************************//
protected static class OrderedSurface implements OrderedRenderable
{
protected final AnalyticSurface surface;
protected final double eyeDistance;
public OrderedSurface(AnalyticSurface surface, double eyeDistance)
{
this.surface = surface;
this.eyeDistance = eyeDistance;
}
public double getDistanceFromEye()
{
return this.eyeDistance;
}
public void pick(DrawContext dc, Point pickPoint)
{
this.surface.pickSupport.beginPicking(dc);
try
{
this.render(dc);
}
finally
{
this.surface.pickSupport.endPicking(dc);
this.surface.pickSupport.resolvePick(dc, dc.getPickPoint(), this.surface.getClientLayer());
}
}
public void render(DrawContext dc)
{
this.surface.drawOrderedRenderable(dc);
}
}
protected static class RenderInfo
{
protected final int gridWidth;
protected final int gridHeight;
protected final IntBuffer interiorIndexBuffer;
protected final IntBuffer outlineIndexBuffer;
protected final FloatBuffer cartesianVertexBuffer;
protected final FloatBuffer cartesianNormalBuffer;
protected final FloatBuffer geographicVertexBuffer;
protected final ByteBuffer colorBuffer;
protected final ByteBuffer shadowColorBuffer;
public RenderInfo(int gridWidth, int gridHeight)
{
int numVertices = gridWidth * gridHeight;
this.gridWidth = gridWidth;
this.gridHeight = gridHeight;
this.interiorIndexBuffer = WWMath.computeIndicesForGridInterior(gridWidth, gridHeight);
this.outlineIndexBuffer = WWMath.computeIndicesForGridOutline(gridWidth, gridHeight);
this.cartesianVertexBuffer = Buffers.newDirectFloatBuffer(3 * numVertices);
this.cartesianNormalBuffer = Buffers.newDirectFloatBuffer(3 * numVertices);
this.geographicVertexBuffer = Buffers.newDirectFloatBuffer(3 * numVertices);
this.colorBuffer = Buffers.newDirectByteBuffer(4 * numVertices);
this.shadowColorBuffer = Buffers.newDirectByteBuffer(4 * numVertices);
}
public int getGridWidth()
{
return this.gridWidth;
}
public int getGridHeight()
{
return this.gridHeight;
}
public int getNumVertices()
{
return this.gridWidth * this.gridHeight;
}
public void drawInterior(DrawContext dc)
{
GL2 gl = dc.getGL().getGL2(); // GL initialization checks for GL2 compatibility.
gl.glDrawElements(GL.GL_TRIANGLE_STRIP, this.interiorIndexBuffer.remaining(), GL.GL_UNSIGNED_INT,
this.interiorIndexBuffer);
}
public void drawOutline(DrawContext dc)
{
GL2 gl = dc.getGL().getGL2(); // GL initialization checks for GL2 compatibility.
gl.glDrawElements(GL.GL_LINE_LOOP, this.outlineIndexBuffer.remaining(), GL.GL_UNSIGNED_INT,
this.outlineIndexBuffer);
}
}
//**************************************************************//
//******************** Surface Objects ***********************//
//**************************************************************//
protected void preRenderSurfaceObjects(DrawContext dc)
{
if (this.surfaceAttributes.isDrawShadow())
{
if (this.shadowSurface == null)
this.shadowSurface = this.createShadowSurface();
this.shadowSurface.preRender(dc);
}
if (this.getAltitudeMode() == WorldWind.CLAMP_TO_GROUND)
{
if (this.clampToGroundSurface == null)
this.clampToGroundSurface = this.createClampToGroundSurface();
this.clampToGroundSurface.preRender(dc);
}
}
protected void drawSurfaceObjects(DrawContext dc)
{
if (this.surfaceAttributes.isDrawShadow())
{
if (!dc.isPickingMode())
this.shadowSurface.render(dc);
}
if (this.getAltitudeMode() == WorldWind.CLAMP_TO_GROUND)
{
this.clampToGroundSurface.render(dc);
}
}
protected AnalyticSurfaceObject createClampToGroundSurface()
{
return new ClampToGroundSurface(this);
}
protected AnalyticSurfaceObject createShadowSurface()
{
return new ShadowSurface(this);
}
protected static class AnalyticSurfaceObject extends AbstractSurfaceObject
{
protected AnalyticSurface analyticSurface;
public AnalyticSurfaceObject(AnalyticSurface analyticSurface)
{
this.analyticSurface = analyticSurface;
}
public void markAsModified()
{
super.updateModifiedTime();
super.clearCaches();
}
public List getSectors(DrawContext dc)
{
if (dc == null)
{
String message = Logging.getMessage("nullValue.DrawContextIsNull");
Logging.logger().severe(message);
throw new IllegalArgumentException(message);
}
return Arrays.asList(this.analyticSurface.sector);
}
protected void drawGeographic(DrawContext dc, SurfaceTileDrawContext sdc)
{
this.beginDrawing(dc);
try
{
this.doDrawGeographic(dc, sdc);
}
finally
{
this.endDrawing(dc);
}
}
protected void beginDrawing(DrawContext dc)
{
GL2 gl = dc.getGL().getGL2(); // GL initialization checks for GL2 compatibility.
gl.glPushAttrib(
GL2.GL_COLOR_BUFFER_BIT // for alpha func and ref, blend func
| GL2.GL_CURRENT_BIT // for current RGBA color
| GL2.GL_DEPTH_BUFFER_BIT // for depth test disable
| GL2.GL_LINE_BIT); // for line width, line smooth
gl.glMatrixMode(GL2.GL_MODELVIEW);
gl.glPushMatrix();
gl.glEnable(GL.GL_BLEND);
OGLUtil.applyBlending(gl, false);
gl.glDisable(GL.GL_DEPTH_TEST);
if (!dc.isPickingMode())
{
gl.glEnable(GL.GL_LINE_SMOOTH);
}
}
protected void endDrawing(DrawContext dc)
{
GL2 gl = dc.getGL().getGL2(); // GL initialization checks for GL2 compatibility.
gl.glPopMatrix();
gl.glPopAttrib();
// Restore default GL client vertex array state.
gl.glDisableClientState(GL2.GL_VERTEX_ARRAY);
gl.glDisableClientState(GL2.GL_COLOR_ARRAY);
}
protected void doDrawGeographic(DrawContext dc, SurfaceTileDrawContext sdc)
{
GL2 gl = dc.getGL().getGL2(); // GL initialization checks for GL2 compatibility.
Matrix modelview = sdc.getModelviewMatrix(this.analyticSurface.referencePos);
gl.glMultMatrixd(modelview.toArray(new double[16], 0, false), 0);
this.bind(dc);
if (this.analyticSurface.surfaceAttributes.isDrawInterior())
this.drawInterior(dc);
if (this.analyticSurface.surfaceAttributes.isDrawOutline())
this.drawOutline(dc);
}
protected void bind(DrawContext dc)
{
}
protected void drawInterior(DrawContext dc)
{
this.analyticSurface.surfaceRenderInfo.drawInterior(dc);
}
protected void drawOutline(DrawContext dc)
{
GL2 gl = dc.getGL().getGL2(); // GL initialization checks for GL2 compatibility.
gl.glLineWidth((float) this.analyticSurface.surfaceAttributes.getOutlineWidth());
this.analyticSurface.surfaceRenderInfo.drawOutline(dc);
}
}
protected static class ClampToGroundSurface extends AnalyticSurfaceObject
{
public ClampToGroundSurface(AnalyticSurface analyticSurface)
{
super(analyticSurface);
}
@Override
protected void bind(DrawContext dc)
{
GL2 gl = dc.getGL().getGL2(); // GL initialization checks for GL2 compatibility.
gl.glEnableClientState(GL2.GL_VERTEX_ARRAY);
gl.glVertexPointer(3, GL.GL_FLOAT, 0, this.analyticSurface.surfaceRenderInfo.geographicVertexBuffer);
if (!dc.isPickingMode())
{
gl.glEnableClientState(GL2.GL_COLOR_ARRAY);
gl.glColorPointer(4, GL.GL_UNSIGNED_BYTE, 0, this.analyticSurface.surfaceRenderInfo.colorBuffer);
}
}
protected void drawOutline(DrawContext dc)
{
GL2 gl = dc.getGL().getGL2(); // GL initialization checks for GL2 compatibility.
if (!dc.isPickingMode())
{
// Set the outline color.
Color color = this.analyticSurface.surfaceAttributes.getOutlineMaterial().getDiffuse();
// Convert the floating point opacity from the range [0, 1] to the unsigned byte range [0, 255].
int alpha = (int) (255 * this.analyticSurface.surfaceAttributes.getOutlineOpacity() + 0.5);
gl.glColor4ub((byte) color.getRed(), (byte) color.getGreen(), (byte) color.getBlue(), (byte) alpha);
gl.glDisableClientState(GL2.GL_COLOR_ARRAY);
}
super.drawOutline(dc);
if (!dc.isPickingMode())
{
gl.glEnableClientState(GL2.GL_COLOR_ARRAY);
}
}
}
protected static class ShadowSurface extends AnalyticSurfaceObject
{
public ShadowSurface(AnalyticSurface analyticSurface)
{
super(analyticSurface);
}
@Override
protected void buildPickRepresentation(DrawContext dc)
{
// The analytic surface's shadow is not drawn during picking. Suppress any attempt to create a pick
// representation for the shadow to eliminate unnecessary overhead.
}
@Override
protected void bind(DrawContext dc)
{
GL2 gl = dc.getGL().getGL2(); // GL initialization checks for GL2 compatibility.
gl.glEnableClientState(GL2.GL_VERTEX_ARRAY);
gl.glVertexPointer(3, GL.GL_FLOAT, 0, this.analyticSurface.surfaceRenderInfo.geographicVertexBuffer);
if (!dc.isPickingMode())
{
gl.glEnableClientState(GL2.GL_COLOR_ARRAY);
gl.glColorPointer(4, GL.GL_UNSIGNED_BYTE, 0, this.analyticSurface.surfaceRenderInfo.shadowColorBuffer);
}
}
protected void drawOutline(DrawContext dc)
{
GL2 gl = dc.getGL().getGL2(); // GL initialization checks for GL2 compatibility.
if (!dc.isPickingMode())
{
// Convert the floating point opacity from the range [0, 1] to the unsigned byte range [0, 255].
int alpha = (int) (255 * this.analyticSurface.surfaceAttributes.getOutlineOpacity()
* this.analyticSurface.surfaceAttributes.getShadowOpacity() + 0.5);
gl.glColor4ub((byte) 0, (byte) 0, (byte) 0, (byte) alpha);
gl.glDisableClientState(GL2.GL_COLOR_ARRAY);
}
super.drawOutline(dc);
if (!dc.isPickingMode())
{
gl.glEnableClientState(GL2.GL_COLOR_ARRAY);
}
}
}
}