public PlotState getPlotState() {
PlotState state = super.getPlotState();
/* Modify ranges. This is required because of confusion about what
* axes mean between GraphicsWindow and SphereWindow. */
if (state.getValid()) {
double[][] bounds = state.getRanges();
int naux = state.getShaders().length;
Range[] viewRanges = getViewRanges();
Range[] dataRanges = getDataRanges();
boolean[] logFlags = state.getLogFlags();
boolean[] flipFlags = state.getFlipFlags();
int mainNdim = getMainRangeCount();
for (int i = 0; i < naux; i++) {
logFlags[mainNdim + i] = logFlags[3 + i];
flipFlags[mainNdim + i] = flipFlags[3 + i];
Range range = new Range(dataRanges[mainNdim + i]);
range.limit(viewRanges[mainNdim + i]);
bounds[mainNdim + i] = range.getFiniteBounds(logFlags[mainNdim + i]);
}
}
return state;
}
/**
* Updates a plot state generated by this factory with information generated from a first pass
* through the data.
*
* @param state plot state to update
* @param bounds data bounds calculated by a pass through the data
*/
protected void configureFromBounds(PlotState state, DataBounds bounds) throws TaskException {
PlotData plotData = state.getPlotData();
int ndim = bounds.getRanges().length;
int mainNdim = mainDimNames_.length;
/* Update plot state range limits as required. */
for (int idim = 0; idim < ndim; idim++) {
boolean logFlag = state.getLogFlags()[idim];
double[] stateRange = state.getRanges()[idim];
double[] calcRange = bounds.getRanges()[idim].getFiniteBounds(logFlag);
boolean loCalc = Double.isNaN(stateRange[0]);
boolean hiCalc = Double.isNaN(stateRange[1]);
String dimName = idim < mainNdim ? mainDimNames_[idim] : "Aux";
if (loCalc) {
if (!hiCalc && stateRange[1] <= calcRange[0]) {
String msg =
"Supplied "
+ dimName
+ " upper bound ("
+ stateRange[1]
+ ") is less than data lower bound ("
+ calcRange[0]
+ ")";
throw new ExecutionException(msg);
}
stateRange[0] = calcRange[0];
}
if (hiCalc) {
if (!loCalc && stateRange[0] >= calcRange[1]) {
String msg =
"Supplied "
+ dimName
+ " lower bound ("
+ stateRange[0]
+ ") is greater than data upper bound ("
+ calcRange[1]
+ ")";
throw new ExecutionException(msg);
}
stateRange[1] = calcRange[1];
}
assert stateRange[0] <= stateRange[1];
/* If lower and upper bounds are equal, nudge them down and up
* respectively by an arbitrary amount. */
if (stateRange[0] == stateRange[1]) {
double val = stateRange[0];
if (val == Math.floor(val)) {
stateRange[0]--;
stateRange[1]++;
} else {
stateRange[0] = Math.floor(val);
stateRange[1] = Math.ceil(val);
}
}
/* Otherwise, introduce padding for calculated bounds
* for non-auxiliary axes only. */
else {
if (idim < mainNdim) {
if (logFlag) {
double pad = Math.pow(stateRange[1] / stateRange[0], PAD_RATIO);
if (loCalc) {
stateRange[0] /= pad;
}
if (hiCalc) {
stateRange[1] *= pad;
}
} else {
double pad = (stateRange[1] - stateRange[0]) * PAD_RATIO;
if (loCalc) {
stateRange[0] -= pad;
}
if (hiCalc) {
stateRange[1] += pad;
}
}
}
}
assert state.getRanges()[idim][0] < state.getRanges()[idim][1];
}
/* Update style configurations as required. */
int nset = plotData.getSetCount();
final Style[] styles = new Style[nset];
int nAdjust = 0;
for (int is = 0; is < nset; is++) {
Style style = plotData.getSetStyle(is);
if (requiresAdjustFromData(style)) {
styles[is] = adjustFromData(style, is, bounds);
nAdjust++;
} else {
styles[is] = style;
}
}
if (nAdjust > 0) {
state.setPlotData(
new WrapperPlotData(plotData) {
public Style getSetStyle(int is) {
return styles[is];
}
});
}
}