@Override
public void compute() {
double n = Math.round(number.getDouble());
result.setDefined();
if (n == 1) {
result.setValue(false);
return;
}
if (n < 2 || n > MyMath.LARGEST_INTEGER) {
result.setUndefinedProverOnly();
return;
}
result.setValue(true);
for (int i = 2; i <= n / i; i++) {
if (n % i == 0) {
result.setValue(false);
return;
}
}
}
@Override
public boolean stopCellEditing() {
try {
if (editGeo.isIndependent()) {
editGeo.setValue(checkBox.isSelected());
editGeo.updateCascade();
}
// app.storeUndoInfo();
} catch (Exception ex) {
ex.printStackTrace();
super.stopCellEditing();
editing = false;
return false;
}
editing = false;
return super.stopCellEditing();
}
@Override
public final void compute() {
outputBoolean.setValue(GeoPoint.collinearND(inputPoint1, inputPoint2, inputPoint3));
}
/** Heavy computation of the proof. */
public final void initialCompute() {
// Create and initialize the prover
Prover p = UtilFactory.getPrototype().newProver();
ProverSettings proverSettings = ProverSettings.get();
if ("OpenGeoProver".equalsIgnoreCase(proverSettings.proverEngine)) {
if ("Wu".equalsIgnoreCase(proverSettings.proverMethod))
p.setProverEngine(ProverEngine.OPENGEOPROVER_WU);
else if ("Area".equalsIgnoreCase(proverSettings.proverMethod))
p.setProverEngine(ProverEngine.OPENGEOPROVER_AREA);
} else if ("Botana".equalsIgnoreCase(proverSettings.proverEngine))
p.setProverEngine(ProverEngine.BOTANAS_PROVER);
else if ("Recio".equalsIgnoreCase(proverSettings.proverEngine))
p.setProverEngine(ProverEngine.RECIOS_PROVER);
else if ("PureSymbolic".equalsIgnoreCase(proverSettings.proverEngine))
p.setProverEngine(ProverEngine.PURE_SYMBOLIC_PROVER);
else if ("Auto".equalsIgnoreCase(proverSettings.proverEngine))
p.setProverEngine(ProverEngine.AUTO);
p.setTimeout(proverSettings.proverTimeout);
p.setConstruction(cons);
p.setStatement(root);
// Compute extra NDG's:
p.setReturnExtraNDGs(true);
// Adding benchmarking:
double startTime = cons.getApplication().getMillisecondTime();
p.compute(); // the computation of the proof
int elapsedTime = (int) (cons.getApplication().getMillisecondTime() - startTime);
/*
* Don't remove this. It is needed for automated testing. (String match
* is assumed.)
*/
Log.debug("Benchmarking: " + elapsedTime + " ms");
ProofResult proofresult = p.getProofResult();
ExtendedBoolean result = p.getYesNoAnswer();
Log.debug("STATEMENT IS " + proofresult + " (yes/no: " + result + ")");
if (proofresult == ProofResult.PROCESSING) {
list.setUndefined();
return;
}
list.setDefined(true);
list.clear();
if (!ExtendedBoolean.UNKNOWN.equals(result)) {
Boolean unreadable = null;
if (proofresult == ProofResult.TRUE_NDG_UNREADABLE) {
unreadable = true;
}
if (proofresult == ProofResult.TRUE) {
unreadable = false;
}
GeoBoolean answer = new GeoBoolean(cons);
answer.setValue(result.boolVal());
list.add(answer);
if (result.boolVal()) {
HashSet<NDGCondition> ndgresult = p.getNDGConditions();
GeoList ndgConditionsList = new GeoList(cons);
ndgConditionsList.clear();
ndgConditionsList.setDrawAsComboBox(true);
Iterator<NDGCondition> it = ndgresult.iterator();
TreeSet<GeoText> sortedSet = new TreeSet<GeoText>(GeoText.getComparator());
// Collecting the set of NDG conditions.
// The OGP data collector may left some unreadable conditions
// so we make sure if the condition is readable.
while (!unreadable && it.hasNext()) {
GeoText ndgConditionText = new GeoText(cons);
NDGCondition ndgc = it.next();
// Do not print unnecessary conditions:
if (ndgc.getReadability() > 0) {
ndgc.rewrite(cons);
String s = null;
if (relTool) {
String cond = ndgc.getCondition();
if ("AreParallel".equals(cond)) {
// non-parallism in 2D means intersecting
// FIXME: this is not true for 3D
s =
RelationNumerical.intersectString(
ndgc.getGeos()[0], ndgc.getGeos()[1], true, getLoc());
} else if ("AreCollinear".equals(cond)) {
s =
RelationNumerical.triangleNonDegenerateString(
(GeoPoint) ndgc.getGeos()[0],
(GeoPoint) ndgc.getGeos()[1],
(GeoPoint) ndgc.getGeos()[2],
getLoc());
} else if ("AreEqual".equals(cond)) {
s =
RelationNumerical.equalityString(
ndgc.getGeos()[0], ndgc.getGeos()[1], false, getLoc());
} else if ("ArePerpendicular".equals(cond)) {
s =
RelationNumerical.perpendicularString(
(GeoLine) ndgc.getGeos()[0], (GeoLine) ndgc.getGeos()[1], false, getLoc());
} else if ("AreCongruent".equals(cond)) {
s =
RelationNumerical.congruentSegmentString(
ndgc.getGeos()[0], ndgc.getGeos()[1], false, getLoc());
}
}
if (s == null || !relTool) {
GeoElement[] geos = ndgc.getGeos();
if (geos == null) { // formula with quantities
s = ndgc.getCondition();
} else {
s = getLoc().getCommand(ndgc.getCondition());
s += "[";
for (int i = 0; i < ndgc.getGeos().length; ++i) {
if (i > 0) {
s += ',';
}
/*
* There can be a case when the underlying
* prover sends such objects which cannot be
* understood by GeoGebra. In this case we
* use the "Objects" word. In this case we
* normally return ProveResult.UNKNOWN to
* not confuse the student, but for sure, we
* still do the check here as well.
*/
GeoElement geo = ndgc.getGeos()[i];
if (geo != null) s += ndgc.getGeos()[i].getLabelSimple();
else s += "...";
}
s += "]";
if (relTool) {
s = getLoc().getPlain("not") + " " + s;
}
}
}
ndgConditionText.setTextString(s);
ndgConditionText.setLabelVisible(false);
ndgConditionText.setEuclidianVisible(false);
sortedSet.add(ndgConditionText);
}
// For alphabetically ordering, we need a sorted set here:
}
// Copy the sorted list into the output:
Iterator<GeoText> it2 = sortedSet.iterator();
while (it2.hasNext()) {
ndgConditionsList.add(it2.next());
}
if (unreadable) {
GeoText ndgConditionText = new GeoText(cons);
String cond = "...";
ndgConditionText.setTextString(cond);
ndgConditionText.setLabelVisible(false);
ndgConditionText.setEuclidianVisible(false);
sortedSet.add(ndgConditionText);
ndgConditionsList.add(ndgConditionText);
}
// Put this list to the final output (if non-empty):
if (ndgConditionsList.size() > 0) list.add(ndgConditionsList);
}
}
/*
* Don't remove this. It is needed for testing the web platform. (String
* match is assumed.)
*/
Log.debug("OUTPUT for ProveDetails: " + list);
}