/**
* _more_
*
* @param stormTrack _more_
* @param param _more_
* @return _more_
*/
protected LineState makeLine(StormTrack stormTrack, StormParam param) {
List<Real> values = new ArrayList<Real>();
List<DateTime> times = stormTrack.getTrackTimes();
List<StormTrackPoint> trackPoints = stormTrack.getTrackPoints();
double min = 0;
double max = 0;
Unit unit = null;
for (int pointIdx = 0; pointIdx < times.size(); pointIdx++) {
Real value = trackPoints.get(pointIdx).getAttribute(param);
if (value == null) {
continue;
}
if (unit == null) {
unit = ((RealType) value.getType()).getDefaultUnit();
}
values.add(value);
double dvalue = value.getValue();
// System.err.print(","+dvalue);
if ((pointIdx == 0) || (dvalue > max)) {
max = dvalue;
}
if ((pointIdx == 0) || (dvalue < min)) {
min = dvalue;
}
}
if (values.size() == 0) {
return null;
}
// System.err.println("");
String paramLabel = param.toString();
String label = stormTrack.getWay().toString(); // +":" + paramLabel;
LineState lineState = new LineState();
lineState.setRangeIncludesZero(true);
if (stormTrack.getWay().isObservation()) {
lineState.setWidth(2);
} else {
lineState.setWidth(1);
}
lineState.setRange(new Range(min, max));
lineState.setChartName(paramLabel);
lineState.setAxisLabel("[" + unit + "]");
// System.err.println (param + " " + StormDataSource.TYPE_STORMCATEGORY);
if (Misc.equals(param, StormDataSource.PARAM_STORMCATEGORY)) {
// lineState.setShape(LineState.LINETYPE_BAR);
lineState.setLineType(LineState.LINETYPE_BAR);
lineState.setLineType(LineState.LINETYPE_AREA);
} else {
lineState.setLineType(LineState.LINETYPE_SHAPES_AND_LINES);
lineState.setShape(LineState.SHAPE_LARGEPOINT);
}
lineState.setColor(stormDisplayState.getWayDisplayState(stormTrack.getWay()).getColor());
lineState.setName(label);
lineState.setTrack(times, values);
return lineState;
}
/** evaluate the bracket function; e.g., A1[5] or A1[A2] */
public static Data brackets(visad.Field f, Real r) {
Data value = null;
try {
RealType rt = (RealType) r.getType();
value = f.getSample((int) r.getValue());
} catch (VisADException exc) {
if (FormulaVar.DEBUG) exc.printStackTrace();
} catch (RemoteException exc) {
if (FormulaVar.DEBUG) exc.printStackTrace();
}
return value;
}
/**
* Does the pattern match the given value
*
* @param value value to check
* @return Pattern matches value
*/
public boolean match(Data value) throws Exception {
if (value instanceof Real && isNumericRange()) {
Real[] range = getNumericRange();
Real r = (Real) value;
if (r.__ge__(range[0]) == 0) return false;
if (r.__le__(range[1]) == 0) return false;
return true;
}
String stringValue = value.toString();
return StringUtil.stringMatch(stringValue, pattern, true, true);
}
/**
* The animation changed. Handle the change.
*
* @param evt The event
*/
private void handleAnimationPropertyChange(PropertyChangeEvent evt) {
// System.err.println ("Handlechange:" +evt.getPropertyName());
if (evt.getPropertyName().equals(Animation.ANI_VALUE)) {
debug("handleAnimationPropertyChange value :" + evt.getPropertyName());
Real eventValue = (Real) evt.getNewValue();
// if there's nothing to do, return;
if ((eventValue == null) || eventValue.isMissing()) {
return;
}
/** The Animation associated with this widget */
DateTime time = null;
try {
time = new DateTime(eventValue);
} catch (VisADException ve) {;
}
final DateTime theDateTime = time;
final int theIndex = ((anime != null) ? anime.getCurrent() : -1);
SwingUtilities.invokeLater(
new Runnable() {
public void run() {
boolean oldValue = ignoreTimesCbxEvents;
try {
ignoreTimesCbxEvents = true;
// synchronized (timesCbxMutex) {
xcnt++;
timesCbx.setSelectedItem(theDateTime);
// }
if ((boxPanel != null) && (theIndex >= 0)) {
boxPanel.setOnIndex(theIndex);
}
timesCbx.repaint();
} finally {
ignoreTimesCbxEvents = oldValue;
}
}
});
shareValue();
} else if (evt.getPropertyName().equals(Animation.ANI_SET)) {
if (ignoreAnimationSetChange) {
return;
}
updateIndicatorInner((Set) evt.getNewValue(), true);
}
}
/** evaluate the extract function */
public static Data extract(visad.Field f, Real r) {
Data d = null;
try {
d = f.extract((int) r.getValue());
} catch (VisADException exc) {
if (FormulaVar.DEBUG) exc.printStackTrace();
} catch (RemoteException exc) {
if (FormulaVar.DEBUG) exc.printStackTrace();
}
return d;
}
/** evaluate the dot operator */
public static Data dot(TupleIface t, Real r) {
Data d = null;
try {
d = t.getComponent((int) r.getValue());
} catch (VisADException exc) {
if (FormulaVar.DEBUG) exc.printStackTrace();
} catch (RemoteException exc) {
if (FormulaVar.DEBUG) exc.printStackTrace();
}
return d;
}
/**
* Add to the properties list
*
* @param comps List of label/widgets
* @param compMap Optional mapping to hold components for later access
*/
protected void getPropertiesComponents(List comps, Hashtable compMap) {
super.getPropertiesComponents(comps, compMap);
startTextFld = new JTextField(startText, 5);
endTextFld = new JTextField(endText, 5);
comps.add(GuiUtils.rLabel("Start Label:"));
comps.add(GuiUtils.left(startTextFld));
comps.add(GuiUtils.rLabel("End Label:"));
comps.add(GuiUtils.left(endTextFld));
maxDistanceFld = null;
tvm = null;
if (viewDescriptor != null) {
VMManager vmManager = control.getControlContext().getIdv().getVMManager();
List vms = vmManager.getViewManagers(TransectViewManager.class);
tvm = (TransectViewManager) VMManager.findViewManagerInList(viewDescriptor, vms);
if ((tvm != null) && (maxDataDistance != null)) {
maxDistanceFld =
new JTextField(maxDataDistance.getValue() + " [" + maxDataDistance.getUnit() + "]", 15);
maxDistanceFld.setToolTipText("Maximum distance shown. e.g.: value[unit]");
comps.add(GuiUtils.rLabel("Max distance:"));
comps.add(GuiUtils.left(maxDistanceFld));
}
}
}
/**
* Check if we need to show/hide the max data distance box
*
* @throws RemoteException On badness
* @throws VisADException On badness
*/
public void checkBoxVisibility() throws VisADException, RemoteException {
if (maxDistanceBox == null) {
return;
}
if ((maxDataDistance == null) || !super.isVisible()) {
maxDistanceBox.setVisible(false);
} else {
double km = maxDataDistance.getValue(CommonUnit.meter) / 1000.0;
if (km > 2000) {
maxDistanceBox.setVisible(false);
} else {
if (control != null) {
maxDistanceBox.setVisible(control.shouldBeVisible(this));
}
}
}
}
/**
* Find pre-determined contouring values for this parameter by name from the paramdefaults.xml
* file, or compute reasonable values of contouring values from the data itself. min no contour
* line below this value; base a contour line must have this value (even if not seen), other
* values are this value +/- some multiple of the interval; max no contour with greater value than
* this; interval if negative, means show dashed lines below base value.
*
* @param paramName variable name from the data source
* @param rangeType one of them ViaAD RealType thingys for the data
* @param displayUnit the unit the data will appear on screen
* @param range The range
* @param contourInfo Default contour info
* @return a ContourInfo object with appropriate contouring values
*/
public ContourInfo findContourInfo(
String paramName,
RealType rangeType,
Unit displayUnit,
Range range,
ContourInfo contourInfo) {
// make an empty ContourInfo object
if (contourInfo == null) {
contourInfo = new ContourInfo(Double.NaN, Double.NaN, Double.NaN, Double.NaN);
}
// Find pre-determined contour values for this parameter name
ContourInfo dflt = getParamDefaultsEditor().getParamContourInfo(paramName);
if (dflt != null) {
// Set pre-determined values into local data "contourInfo"
// System.out.println(" DC: findContourInfo got params contouring values "+ dflt.toString()
// );
contourInfo.setIfDefined(dflt);
}
if (contourInfo.isDefined()) {
return contourInfo;
}
float min = 0.0f;
float max = 1100.0f;
float clBase = Float.NaN;
float clInterval = Float.NaN;
float clMin = Float.NaN;
float clMax = Float.NaN;
try {
// convert data's max/min values from native units to display units
// as seen by user in plots; use VisAD methods
if (Unit.canConvert(rangeType.getDefaultUnit(), displayUnit)) {
Real dispVal = new Real(rangeType, range.min);
min = (float) dispVal.getValue(displayUnit);
dispVal = new Real(rangeType, range.max);
max = (float) dispVal.getValue(displayUnit);
} else {
min = (float) range.min;
max = (float) range.max;
}
// use data max and min values in display units to find appropriate
// workable values for contour interval, base, min, and max.
double span = Math.abs(max - min);
// GEMPAK alogrithm for 5 to 10 contours in a field from grcval.f
int scale = (int) (Math.log(span) / Math.log(10));
if (span < 1) {
scale = scale - 1;
}
double cscale = Math.pow(10, scale);
double crange = span / cscale;
int nrange = (int) crange;
double rint = (nrange + 1) * .1 * cscale;
if (Double.isInfinite(rint)) {
rint = span;
}
if ((span <= 300.0) && (span > 5.0)) {
/* typical case */
clInterval = (float) rint;
clMin = clBase = clInterval * ((int) (min / clInterval));
clMax = clInterval * (1 + (int) (max / clInterval));
} else if (span <= 5.0) { // for max-min less than 5
clInterval = (float) rint;
clMin = clBase = min;
clMax = max;
} else { // for really big ranges, span > 300 make ints
clInterval = (float) ((int) rint);
clMin = clBase = (float) ((int) min);
clMax = (float) ((int) max);
}
clMax = clMax + clInterval;
clMin = clMin - clInterval;
} catch (Exception exp) {
logException("Set contour levels for " + paramName, exp);
}
// this should never be true; must be a leftover
if (clInterval == 0.0f) {
// System.out.println(" DC: findContourInfo got default contour interval of 20.0");
clInterval = 20.0f;
}
// IF any contouring values were not supplied by the parameter-name-based
// information; then load in the computed values made here.
if (!contourInfo.getIntervalDefined() && (contourInfo.getLevelsString() == null)) {
contourInfo.setInterval(clInterval);
}
if (!contourInfo.getBaseDefined()) {
contourInfo.setBase(clBase);
}
if (!contourInfo.getMinDefined()) {
contourInfo.setMin(clMin);
}
if (!contourInfo.getMaxDefined()) {
contourInfo.setMax(clMax);
}
return contourInfo;
}
/**
* Format an Altitude
*
* @param alt The altitude
* @return The formatted alt
*/
public String formatAltitude(Real alt) {
return formatDistance(alt.getValue());
}
/**
* Format an lat or lon with cardinal id (N,S,E,W)
*
* @param latorlon The lat or lon
* @param type (LATITUDE or LONGITUDE)
* @return The formatted lat or lon
*/
public String formatLatLonCardinal(Real latorlon, int type) {
return formatLatLonCardinal(latorlon.getValue(), type);
}
/**
* Format an lat or lon
*
* @param latorlon The lat or lon
* @return The formatted lat or lon
*/
public String formatLatLon(Real latorlon) {
return formatLatLon(latorlon.getValue());
}
public synchronized void drag_direct(VisADRay ray, boolean first, int mouseModifiers) {
if (barbValues == null || ref == null || shadow == null) return;
if (first) {
stop = false;
} else {
if (stop) return;
}
// modify direction if mshift != 0
// modify speed if mctrl != 0
// modify speed and direction if neither
int mshift = mouseModifiers & InputEvent.SHIFT_MASK;
int mctrl = mouseModifiers & InputEvent.CTRL_MASK;
float o_x = (float) ray.position[0];
float o_y = (float) ray.position[1];
float o_z = (float) ray.position[2];
float d_x = (float) ray.vector[0];
float d_y = (float) ray.vector[1];
float d_z = (float) ray.vector[2];
if (pickCrawlToCursor) {
if (first) {
offset_count = OFFSET_COUNT_INIT;
} else {
if (offset_count > 0) offset_count--;
}
if (offset_count > 0) {
float mult = ((float) offset_count) / ((float) OFFSET_COUNT_INIT);
o_x += mult * offsetx;
o_y += mult * offsety;
o_z += mult * offsetz;
}
}
if (first || refirst) {
point_x = barbValues[2];
point_y = barbValues[3];
point_z = 0.0f;
line_x = 0.0f;
line_y = 0.0f;
line_z = 1.0f; // lineAxis == 2 in DataRenderer.drag_direct
} // end if (first || refirst)
float[] x = new float[3]; // x marks the spot
// DirectManifoldDimension = 2
// intersect ray with plane
float dot = (point_x - o_x) * line_x + (point_y - o_y) * line_y + (point_z - o_z) * line_z;
float dot2 = d_x * line_x + d_y * line_y + d_z * line_z;
if (dot2 == 0.0) return;
dot = dot / dot2;
// x is intersection
x[0] = o_x + dot * d_x;
x[1] = o_y + dot * d_y;
x[2] = o_z + dot * d_z;
/*
System.out.println("x = " + x[0] + " " + x[1] + " " + x[2]);
*/
try {
Tuple data = (Tuple) link.getData();
int n = ((TupleType) data.getType()).getNumberOfRealComponents();
Real[] reals = new Real[n];
int k = 0;
int m = data.getDimension();
for (int i = 0; i < m; i++) {
Data component = data.getComponent(i);
if (component instanceof Real) {
reals[k++] = (Real) component;
} else if (component instanceof RealTuple) {
for (int j = 0; j < ((RealTuple) component).getDimension(); j++) {
reals[k++] = (Real) ((RealTuple) component).getComponent(j);
}
}
}
if (first || refirst) {
// get first Data flow vector
for (int i = 0; i < 3; i++) {
int j = flowToComponent[i];
data_flow[i] = (j >= 0) ? (float) reals[j].getValue() : 0.0f;
}
if (coord != null) {
float[][] ds = {{data_flow[0]}, {data_flow[1]}, {data_flow[2]}};
ds = coord.toReference(ds);
data_flow[0] = ds[0][0];
data_flow[1] = ds[1][0];
data_flow[2] = ds[2][0];
}
data_speed =
(float)
Math.sqrt(
data_flow[0] * data_flow[0]
+ data_flow[1] * data_flow[1]
+ data_flow[2] * data_flow[2]);
float barb0 = barbValues[2] - barbValues[0];
float barb1 = barbValues[3] - barbValues[1];
/*
System.out.println("data_flow = " + data_flow[0] + " " + data_flow[1] +
" " + data_flow[2]);
System.out.println("barbValues = " + barbValues[0] + " " + barbValues[1] +
" " + barbValues[2] + " " + barbValues[3]);
System.out.println("data_speed = " + data_speed);
*/
} // end if (first || refirst)
// convert x to a flow vector, and from spatial to earth
if (getRealVectorTypes(which_barb) instanceof EarthVectorType) {
// don't worry about vector magnitude -
// data_speed & display_speed take care of that
float eps = 0.0001f; // estimate derivative with a little vector
float[][] spatial_locs = {
{barbValues[0], barbValues[0] + eps * (x[0] - barbValues[0])},
{barbValues[1], barbValues[1] + eps * (x[1] - barbValues[1])},
{0.0f, 0.0f}
};
/*
System.out.println("spatial_locs = " + spatial_locs[0][0] + " " +
spatial_locs[0][1] + " " + spatial_locs[1][0] + " " +
spatial_locs[1][1]);
*/
float[][] earth_locs = spatialToEarth(spatial_locs);
// WLH - 18 Aug 99
if (earth_locs == null) return;
/*
System.out.println("earth_locs = " + earth_locs[0][0] + " " +
earth_locs[0][1] + " " + earth_locs[1][0] + " " +
earth_locs[1][1]);
*/
x[2] = 0.0f;
x[0] =
(earth_locs[1][1] - earth_locs[1][0])
* ((float) Math.cos(Data.DEGREES_TO_RADIANS * earth_locs[0][0]));
x[1] = earth_locs[0][1] - earth_locs[0][0];
/*
System.out.println("x = " + x[0] + " " + x[1] + " " + x[2]);
*/
} else { // if (!(getRealVectorTypes(which_barb) instanceof EarthVectorType))
// convert x to vector
x[0] -= barbValues[0];
x[1] -= barbValues[1];
// adjust for spatial map scalings but don't worry about vector
// magnitude - data_speed & display_speed take care of that
// also, spatial is Cartesian
double[] ranges = getRanges();
for (int i = 0; i < 3; i++) {
x[i] /= ranges[i];
}
/*
System.out.println("ranges = " + ranges[0] + " " + ranges[1] +
" " + ranges[2]);
System.out.println("x = " + x[0] + " " + x[1] + " " + x[2]);
*/
}
// WLH 6 August 99
x[0] = -x[0];
x[1] = -x[1];
x[2] = -x[2];
/* may need to do this for performance
float[] xx = {x[0], x[1], x[2]};
addPoint(xx);
*/
float x_speed = (float) Math.sqrt(x[0] * x[0] + x[1] * x[1] + x[2] * x[2]);
/* WLH 16 April 2002 - from Ken
if (x_speed < 0.000001f) x_speed = 0.000001f;
*/
if (x_speed < 0.01f) x_speed = 0.01f;
if (first || refirst) {
display_speed = x_speed;
}
refirst = false;
if (mshift != 0) {
// only modify data_flow direction
float ratio = data_speed / x_speed;
x[0] *= ratio;
x[1] *= ratio;
x[2] *= ratio;
/*
System.out.println("direction, ratio = " + ratio + " " +
data_speed + " " + x_speed);
System.out.println("x = " + x[0] + " " + x[1] + " " + x[2]);
*/
} else if (mctrl != 0) {
// only modify data_flow speed
float ratio = x_speed / display_speed;
if (data_speed < EPS) {
data_flow[0] = 2.0f * EPS;
refirst = true;
}
x[0] = ratio * data_flow[0];
x[1] = ratio * data_flow[1];
x[2] = ratio * data_flow[2];
/*
System.out.println("speed, ratio = " + ratio + " " +
x_speed + " " + display_speed);
System.out.println("x = " + x[0] + " " + x[1] + " " + x[2]);
*/
} else {
// modify data_flow speed and direction
float ratio = data_speed / display_speed;
/*
System.out.println("data_speed = " + data_speed +
" display_speed = " + display_speed +
" ratio = " + ratio + " EPS = " + EPS);
System.out.println("x = " + x[0] + " " + x[1] +" " + x[2] +
" x_speed = " + x_speed);
data_speed = 21.213203 display_speed = 0.01 ratio = 2121.3203 EPS = 0.2
x = 1.6170928E-4 1.6021729E-4 -0.0 x_speed = 0.01
wind = (0.3430372, 0.33987218) at (-35.0, 5.0)
*/
if (data_speed < EPS) {
data_flow[0] = 2.0f * EPS;
x[0] = data_flow[0];
x[1] = data_flow[1];
x[2] = data_flow[2];
refirst = true;
} else {
x[0] *= ratio;
x[1] *= ratio;
x[2] *= ratio;
}
}
if (coord != null) {
float[][] xs = {{x[0]}, {x[1]}, {x[2]}};
xs = coord.fromReference(xs);
x[0] = xs[0][0];
x[1] = xs[1][0];
x[2] = xs[2][0];
}
// now replace flow values
Vector vect = new Vector();
for (int i = 0; i < 3; i++) {
int j = flowToComponent[i];
if (j >= 0) {
RealType rtype = (RealType) reals[j].getType();
reals[j] = new Real(rtype, (double) x[i], rtype.getDefaultUnit(), null);
// WLH 31 Aug 2000
Real r = reals[j];
Unit overrideUnit = null;
if (directMap[i] != null) {
overrideUnit = directMap[i].getOverrideUnit();
}
Unit rtunit = rtype.getDefaultUnit();
// units not part of Time string
if (overrideUnit != null
&& !overrideUnit.equals(rtunit)
&& !RealType.Time.equals(rtype)) {
double d = (float) overrideUnit.toThis((double) x[0], rtunit);
r = new Real(rtype, d, overrideUnit);
String valueString = r.toValueString();
vect.addElement(rtype.getName() + " = " + valueString);
} else {
// create location string
vect.addElement(rtype.getName() + " = " + x[i]);
}
}
}
getDisplayRenderer().setCursorStringVector(vect);
Data newData = null;
// now build new RealTuple or Flat Tuple
if (data instanceof RealTuple) {
newData =
new RealTuple(
((RealTupleType) data.getType()), reals, ((RealTuple) data).getCoordinateSystem());
} else {
Data[] new_components = new Data[m];
k = 0;
for (int i = 0; i < m; i++) {
Data component = data.getComponent(i);
if (component instanceof Real) {
new_components[i] = reals[k++];
} else if (component instanceof RealTuple) {
Real[] sub_reals = new Real[((RealTuple) component).getDimension()];
for (int j = 0; j < ((RealTuple) component).getDimension(); j++) {
sub_reals[j] = reals[k++];
}
new_components[i] =
new RealTuple(
((RealTupleType) component.getType()),
sub_reals,
((RealTuple) component).getCoordinateSystem());
}
}
newData = new Tuple(new_components, false);
}
ref.setData(newData);
} catch (VisADException e) {
// do nothing
System.out.println("drag_direct " + e);
e.printStackTrace();
} catch (RemoteException e) {
// do nothing
System.out.println("drag_direct " + e);
e.printStackTrace();
}
}
/**
* Handle glyph moved
*
* @throws RemoteException On badness
* @throws VisADException On badness
*/
public void updateLocation() throws VisADException, RemoteException {
super.updateLocation();
if (points.size() < 2) {
return;
}
if (showText) {
setText(startTextDisplayable, 0, startText, startTextType);
setText(endTextDisplayable, 1, endText, endTextType);
}
checkBoxVisibility();
if ((maxDataDistance == null) || (maxDistanceBox == null)) {
return;
}
double km = maxDataDistance.getValue(CommonUnit.meter) / 1000.0;
if (km > 2000) {
return;
}
EarthLocation p1 = (EarthLocation) points.get(0);
EarthLocation p2 = (EarthLocation) points.get(1);
MathType mathType = RealTupleType.LatitudeLongitudeAltitude;
Bearing baseBearing =
Bearing.calculateBearing(
p1.getLatitude().getValue(),
p1.getLongitude().getValue(),
p2.getLatitude().getValue(),
p2.getLongitude().getValue(),
null);
double baseAngle = baseBearing.getAngle();
LatLonPointImpl[] llps =
new LatLonPointImpl[] {
Bearing.findPoint(
p1.getLatitude().getValue(),
p1.getLongitude().getValue(),
baseAngle + 90.0,
km,
null),
Bearing.findPoint(
p2.getLatitude().getValue(),
p2.getLongitude().getValue(),
baseAngle + 90.0,
km,
null),
Bearing.findPoint(
p2.getLatitude().getValue(), p2.getLongitude().getValue(), baseAngle - 90, km, null),
Bearing.findPoint(
p1.getLatitude().getValue(), p1.getLongitude().getValue(), baseAngle - 90, km, null),
Bearing.findPoint(
p1.getLatitude().getValue(), p1.getLongitude().getValue(), baseAngle + 90.0, km, null)
};
float[][] lineVals = getPointValues();
float alt = lineVals[2][0];
lineVals = new float[3][llps.length];
for (int i = 0; i < lineVals[0].length; i++) {
lineVals[0][i] = (float) llps[i].getLatitude();
lineVals[1][i] = (float) llps[i].getLongitude();
}
float[][] tmp = new float[3][];
for (int i = 0; i < lineVals[0].length - 1; i++) {
tmp[0] =
Misc.merge(
tmp[0],
Misc.interpolate(
2 + getNumInterpolationPoints(), lineVals[0][i], lineVals[0][i + 1]));
tmp[1] =
Misc.merge(
tmp[1],
Misc.interpolate(
2 + getNumInterpolationPoints(), lineVals[1][i], lineVals[1][i + 1]));
}
tmp[2] = new float[tmp[0].length];
lineVals = tmp;
for (int i = 0; i < lineVals[0].length; i++) {
lineVals[2][i] = alt;
}
Data theData = new Gridded3DSet(mathType, lineVals, lineVals[0].length);
maxDistanceBox.setData(theData);
}
/**
* Computes the output property. A {@link java.beans.PropertyChangeEvent} is fired for the output
* property if it differs from the previous value.
*
* @throws VisADException if a VisAD failure occurs.
* @throws RemoteException if a Java RMI exception occurs.
*/
void clock() throws VisADException, RemoteException {
Set domainSet = buoyProfile.getDomainSet();
Real oldLfc;
Real newLfc;
double[] pressures = domainSet.getDoubles()[0];
float[] buoys = buoyProfile.getFloats()[0];
/* Eliminate non-finite pressures and buoyancies. */
int n = 0;
for (int i = 0; i < pressures.length; i++) {
if ((pressures[i] != pressures[i]) || (buoys[i] != buoys[i])) {
n++;
}
}
if (n > 0) {
double[] tmpPres = new double[pressures.length - n];
float[] tmpBuoy = new float[tmpPres.length];
n = 0;
for (int i = 0; i < pressures.length; i++) {
if ((pressures[i] != pressures[i]) || (buoys[i] != buoys[i])) {
continue;
}
tmpPres[n] = pressures[i];
tmpBuoy[n] = buoys[i];
n++;
}
pressures = tmpPres;
buoys = tmpBuoy;
}
if (pressures.length <= 1) {
newLfc = missingLfc;
} else {
Unit presUnit = domainSet.getSetUnits()[0];
boolean ascending = pressures[0] > pressures[1];
if (!ascending) {
/*
* The profile is descending. Make the temporary value arrays
* ascending.
*/
for (int i = 0, j = pressures.length; i < pressures.length / 2; i++) {
--j;
double pres = pressures[i];
pressures[i] = pressures[j];
pressures[j] = pres;
float buoy = buoys[i];
buoys[i] = buoys[j];
buoys[j] = buoy;
}
}
/*
* Descend from the top to positive buoyancy.
*/
int i = buoys.length;
while ((--i >= 0) && (buoys[i] <= 0)) ;
if (i < 0) {
/*
* There is no positively buoyant region.
*/
newLfc = missingLfc;
} else {
/*
* Descend to first non-positive buoyant region.
*/
while ((--i >= 0) && (buoys[i] > 0)) ;
if (i < 0) {
/*
* There is no non-positive buoyant region.
*/
newLfc = missingLfc;
} else {
/*
* Interpolate the LFC.
*/
double pressure =
pressures[i + 1]
/ Math.exp(
buoys[i + 1]
* (Math.log(pressures[i] / pressures[i + 1])
/ (buoys[i] - buoys[i + 1])));
newLfc = new Real((RealType) missingLfc.getType(), pressure, presUnit);
}
}
}
synchronized (this) {
oldLfc = lfc;
lfc = newLfc;
}
firePropertyChange(OUTPUT_PROPERTY_NAME, oldLfc, newLfc);
}
