private void appendFill(int nWords, int v) {
if (vec.isEmpty()) {
if (v == 0) {
vec.add(HEADER0 | nWords);
} else {
vec.add(HEADER1 | nWords);
}
} else if (nWords > 1) {
int back = getBack();
if (v == 0) {
if (isZeroFill(back)) {
setBack(back + nWords);
} else {
vec.add(HEADER0 | nWords);
}
} else if (isOneFill(back)) {
setBack(back + nWords);
} else {
vec.add(HEADER1 | nWords);
}
} else {
active.val = v != 0 ? ALLONES : 0;
appendLiteral();
}
}
/**
* Checks if the bit is set in the compressed bitset.
*
* <p>This operation is considerably slower than the uncompressed version. Use it with care.
*
* @param i the index where bit is checked.
* @return true if the index is set, false otherwise.
*/
public boolean get(int i) {
if (i > numBits()) { // no-way
return false;
} else { // we have to do hard way
for (int j = 0; j < vec.size() && i >= 0; j++) {
int v = vec.getQuick(j);
// for a fill, we know easily.
if (isAFill(v)) {
int size = (v & MAXCNT) * MAXBITS;
if (i < size) return isOneFill(v);
i -= size;
} else {
// plain value.
if (i < MAXBITS) { // do we need to check?
return (1 << (MAXBITS - i - 1) & v) != 0;
} else { // yet to get there.
i -= MAXBITS;
}
}
}
// we need to check the active word.
if (i >= 0) {
return (moreThanInUnsigned(active.val << (MAXBITS + 1 - active.nbits + i), ALLONES));
}
}
return false;
}
// Remplit les cycles avec le generateur LFSR.
// Le nombre de valeurs dans l'ensemble des cycles est de 2^(k1+k2).
// Cette methode fonctionne pour tous les polynomes, meme ceux dont
// la periode n'est pas maximale.
private void fillCyclesLFSR() {
int n = 1 << (k1 + k2); // Nombre de points dans l'ensemble.
IntArrayList c; // Array used to store the current cycle.
int i;
boolean stateVisited[] = new boolean[n];
// Indicates which states have been visited so far.
for (i = 0; i < n; i++) stateVisited[i] = false;
int startState = 0; // First state of the cycle currently considered.
numPoints = 0;
while (startState < n) {
stateVisited[startState] = true;
c = new IntArrayList();
c.add(value);
nextState();
while (state != startState) {
stateVisited[state] = true;
c.add(value);
nextState();
}
addCycle(c);
// System.out.println("Size of Cycle: " + c.size());
for (i = startState + 1; i < n; i++) if (stateVisited[i] == false) break;
startState = i;
validateState(i);
}
}
/**
* Fills all values contained in the receiver into the specified list. Fills the list, starting at
* index 0. After this call returns the specified list has a new size that equals
* <tt>this.size()</tt>. Iteration order is guaranteed to be <i>identical</i> to the order used by
* method {@link #forEachKey(DoubleProcedure)}.
*
* <p>This method can be used to iterate over the values of the receiver.
*
* @param list the list to be filled, can have any size.
*/
public void values(IntArrayList list) {
list.setSize(distinct);
int[] elements = list.elements();
int[] val = values;
byte[] stat = state;
int j = 0;
for (int i = stat.length; i-- > 0; ) {
if (stat[i] == FULL) elements[j++] = val[i];
}
}
/**
* Fills all pairs satisfying a given condition into the specified lists. Fills into the lists,
* starting at index 0. After this call returns the specified lists both have a new size, the
* number of pairs satisfying the condition. Iteration order is guaranteed to be <i>identical</i>
* to the order used by method {@link #forEachKey(DoubleProcedure)}.
*
* <p><b>Example:</b> <br>
*
* <pre>
* DoubleIntProcedure condition = new DoubleIntProcedure() { // match even values only
* public boolean apply(double key, int value) { return value%2==0; }
* }
* keys = (8,7,6), values = (1,2,2) --> keyList = (6,8), valueList = (2,1)</tt>
* </pre>
*
* @param condition the condition to be matched. Takes the current key as first and the current
* value as second argument.
* @param keyList the list to be filled with keys, can have any size.
* @param valueList the list to be filled with values, can have any size.
*/
public void pairsMatching(
final DoubleIntProcedure condition,
final DoubleArrayList keyList,
final IntArrayList valueList) {
keyList.clear();
valueList.clear();
for (int i = table.length; i-- > 0; ) {
if (state[i] == FULL && condition.apply(table[i], values[i])) {
keyList.add(table[i]);
valueList.add(values[i]);
}
}
}
private void appendLiteral() {
if (vec.size() == 0) {
vec.add(active.val);
} else {
int back = vec.getQuick(vec.size() - 1);
if (active.val == 0) { // incoming word is zero
if (back == 0) {
setBack(HEADER0 + 2);
} else if (isZeroFill(back)) {
setBack(++back);
} else {
vec.add(active.val);
}
} else if (active.val == ALLONES) { // incoming word is allones
if (back == ALLONES) {
setBack((HEADER1 | 2));
} else if (isOneFill(back)) {
setBack(++back);
} else {
vec.add(active.val);
}
} else { // incoming word contains a mixture of bits
vec.add(active.val);
}
}
nbits += MAXBITS;
active.reset();
nset = 0;
}
private int doCount() {
nset = 0;
nbits = 0;
for (int i = 0; i < vec.size(); i++) {
int v = vec.getQuick(i);
if (!isAFill(v)) {
nbits += MAXBITS;
nset += Integer.bitCount(v);
} else {
int tmp = (v & MAXCNT) * MAXBITS;
nbits += tmp;
nset += tmp * (isOneFill(v) ? 1 : 0);
}
}
return nbits;
}
/**
* Returns the number of 1 bits in the bitset.
*
* @return the number of 1 bits in the bitset.
*/
public int cardinality() {
// check the cardinality, again if it has been reset.
if (nset == 0 && !vec.isEmpty()) {
doCount();
}
// the sizes in the vector and the active word.
return nset + Integer.bitCount(active.val);
}
private WAHBitSet genericOp(OpType op, WAHBitSet other) {
WAHBitSet ret = new WAHBitSet();
// ensure that they have the same bit length.
if (this.numBits() < other.numBits()) {
this.setBit(other.numBits() - 1, 0);
} else if (this.numBits() > other.numBits()) {
other.setBit(numBits() - 1, 0);
}
if (vec.size() > 0) {
run xrun = new run(vec), yrun = new run(other.vec);
xrun.decode();
yrun.decode();
do {
if (xrun.nWords == 0) {
xrun.inc();
xrun.decode();
}
if (yrun.nWords == 0) {
yrun.inc();
yrun.decode();
}
if (xrun.isFill()) {
if (yrun.isFill()) {
int nWords = Math.min(xrun.nWords, yrun.nWords);
ret.appendFill(nWords, getOpResult(op, xrun.fillWord, yrun.fillWord));
xrun.nWords -= nWords;
yrun.nWords -= nWords;
} else {
ret.active.val = getOpResult(op, xrun.fillWord, yrun.get());
ret.appendLiteral();
--xrun.nWords;
yrun.nWords = 0;
}
} else if (yrun.isFill()) {
ret.active.val = getOpResult(op, yrun.fillWord, xrun.get());
ret.appendLiteral();
yrun.nWords--;
xrun.nWords = 0;
} else {
ret.active.val = getOpResult(op, xrun.get(), yrun.get());
ret.appendLiteral();
yrun.nWords = 0;
xrun.nWords = 0;
}
} while (!(xrun.end() && yrun.end()));
}
ret.active.val = getOpResult(op, this.active.val, other.active.val);
ret.active.nbits = this.active.nbits;
ret.doCount();
return ret;
}
public void decode() {
int v = vec.get(idx);
if (WAHBitSet.isAFill(v)) {
fillWord = (isOneFill(v) ? ALLONES : 0);
nWords = v & MAXCNT;
fill = true;
} else {
nWords = 1;
fill = false;
}
}
private void appendCounter(int val, int cnt) {
int head = 2 + val;
int w = (head << SECONDBIT) + cnt;
nbits += cnt * MAXBITS;
if (vec.isEmpty()) {
vec.add(w);
} else {
int back = getBack();
if ((back >>> SECONDBIT) == head) {
back += cnt;
setBack(back);
} else if ((back == ALLONES) && head == 3) {
setBack(w + 1);
} else if ((back == 0) && head == 2) {
setBack(w + 1);
} else {
vec.add(w);
}
}
}
/**
* This is an optimization over the and function. This does not create new bitset. This just
* counts the number of 1 bits common between the two bitsets.
*
* @param other the bitset to and with.
* @return the number of 1s common between two bitsets.
*/
public int andSize(WAHBitSet other) {
int size = 0;
// ensure that they have the same bit length.
if (this.numBits() < other.numBits()) {
this.setBit(other.numBits() - 1, 0);
} else if (this.numBits() > other.numBits()) {
other.setBit(numBits() - 1, 0);
}
if (vec.size() > 0) {
run xrun = new run(vec), yrun = new run(other.vec);
xrun.decode();
yrun.decode();
do {
if (xrun.nWords == 0) {
xrun.inc();
xrun.decode();
}
if (yrun.nWords == 0) {
yrun.inc();
yrun.decode();
}
if (xrun.isFill()) {
if (yrun.isFill()) {
int nWords = Math.min(xrun.nWords, yrun.nWords);
if ((xrun.fillWord & yrun.fillWord) == 1) {
size += nWords * MAXBITS;
}
xrun.nWords -= nWords;
yrun.nWords -= nWords;
} else {
size += countInRun(xrun, yrun);
}
} else if (yrun.isFill()) {
size += countInRun(yrun, xrun);
} else {
int val = xrun.get() & yrun.get();
if (val > 0) size += Integer.bitCount(val);
yrun.nWords = 0;
xrun.nWords = 0;
}
} while (!(xrun.end() && yrun.end()));
}
size += Integer.bitCount(this.active.val & other.active.val);
return size;
}
// this function tries to advance the run by nWords
// sometimes it is not possible, in that case it returns how much it advanced.
public int inc(int nWords) {
int orig = nWords;
nWords--;
while (nWords > 0) {
++idx;
int v = vec.get(idx);
if (isAFill(v)) {
int words = v & MAXCNT;
if (words > nWords) {
--idx;
break;
}
nWords -= words;
} else {
nWords--;
}
}
return orig - nWords;
}
private void appendCompressed(int v) {
vec.add(v);
nbits += MAXBITS;
nset = 0;
}
public boolean end() {
return idx >= vec.size() - 1;
}
public int get() {
return vec.getQuick(idx);
}
private void setBack(int val) {
vec.setQuick(vec.size() - 1, val);
}
/**
* Returns the best cut of a graph w.r.t. the degree of dissimilarity between points of different
* partitions and the degree of similarity between points of the same partition.
*
* @param W the weight matrix of the graph
* @return an array of two elements, each of these contains the points of a partition
*/
protected static int[][] bestCut(DoubleMatrix2D W) {
int n = W.columns();
// Builds the diagonal matrices D and D^(-1/2) (represented as their diagonals)
DoubleMatrix1D d = DoubleFactory1D.dense.make(n);
DoubleMatrix1D d_minus_1_2 = DoubleFactory1D.dense.make(n);
for (int i = 0; i < n; i++) {
double d_i = W.viewRow(i).zSum();
d.set(i, d_i);
d_minus_1_2.set(i, 1 / Math.sqrt(d_i));
}
DoubleMatrix2D D = DoubleFactory2D.sparse.diagonal(d);
// System.out.println("DoubleMatrix2D :\n"+D.toString());
DoubleMatrix2D X = D.copy();
// System.out.println("DoubleMatrix2D copy :\n"+X.toString());
// X = D^(-1/2) * (D - W) * D^(-1/2)
X.assign(W, Functions.minus);
// System.out.println("DoubleMatrix2D X: (D-W) :\n"+X.toString());
for (int i = 0; i < n; i++)
for (int j = 0; j < n; j++)
X.set(i, j, X.get(i, j) * d_minus_1_2.get(i) * d_minus_1_2.get(j));
// Computes the eigenvalues and the eigenvectors of X
EigenvalueDecomposition e = new EigenvalueDecomposition(X);
DoubleMatrix1D lambda = e.getRealEigenvalues();
// Selects the eigenvector z_2 associated with the second smallest eigenvalue
// Creates a map that contains the pairs <index, eigenvalue>
AbstractIntDoubleMap map = new OpenIntDoubleHashMap(n);
for (int i = 0; i < n; i++) map.put(i, Math.abs(lambda.get(i)));
IntArrayList list = new IntArrayList();
// Sorts the map on the value
map.keysSortedByValue(list);
// Gets the index of the second smallest element
int i_2 = list.get(1);
// y_2 = D^(-1/2) * z_2
DoubleMatrix1D y_2 = e.getV().viewColumn(i_2).copy();
y_2.assign(d_minus_1_2, Functions.mult);
// Creates a map that contains the pairs <i, y_2[i]>
map.clear();
for (int i = 0; i < n; i++) map.put(i, y_2.get(i));
// Sorts the map on the value
map.keysSortedByValue(list);
// Search the element in the map previuosly ordered that minimizes the cut
// of the partition
double best_cut = Double.POSITIVE_INFINITY;
int[][] partition = new int[2][];
// The array v contains all the elements of the graph ordered by their
// projection on vector y_2
int[] v = list.elements();
// For each admissible splitting point i
for (int i = 1; i < n; i++) {
// The array a contains all the elements that have a projection on vector
// y_2 less or equal to the one of i-th element
// The array b contains the remaining elements
int[] a = new int[i];
int[] b = new int[n - i];
System.arraycopy(v, 0, a, 0, i);
System.arraycopy(v, i, b, 0, n - i);
double cut = Ncut(W, a, b, v);
if (cut < best_cut) {
best_cut = cut;
partition[0] = a;
partition[1] = b;
}
}
// System.out.println("Partition:");
// UtilsJS.printMatrix(partition);
return partition;
}
private int getBack() {
return vec.getQuick(vec.size() - 1);
}
/**
* Returns the amount of memory used by the compressed bit set
*
* @return the amount of memory used by the compressed bit set
*/
public long memSize() {
return vec.size() + 2;
}
/**
* Returns a new WAH compressed bitset after anding the current bitset with the <i>other</i>
* bitset.
*
* @param other the bitset to and with
* @return The resulting bitset
*/
public WAHBitSet and(WAHBitSet other) {
WAHBitSet ret = new WAHBitSet();
// ensure that they have the same bit length.
if (this.numBits() < other.numBits()) {
this.setBit(other.numBits() - 1, 0);
} else if (this.numBits() > other.numBits()) {
other.setBit(numBits() - 1, 0);
}
// if there is something in the vector.
if (vec.size() > 0) {
// create new run objects and decode them.
run xrun = new run(vec), yrun = new run(other.vec);
xrun.decode();
yrun.decode();
do {
// if you finished a run, then get the next one.
if (xrun.nWords == 0) {
xrun.inc();
xrun.decode();
}
if (yrun.nWords == 0) {
yrun.inc();
yrun.decode();
}
if (xrun.isFill()) {
if (yrun.isFill()) {
// both are fills... this is the best.
int nWords = Math.min(xrun.nWords, yrun.nWords);
ret.appendFill(nWords, xrun.fillWord & yrun.fillWord);
xrun.nWords -= nWords;
yrun.nWords -= nWords;
} else {
// just cut through the other run
chewUpRun(xrun, ret, yrun);
}
} else if (yrun.isFill()) {
// again do the same, with different order.
chewUpRun(yrun, ret, xrun);
} else {
// both are literals, so get the new literal and
// append it to the return value.
ret.active.val = xrun.get() & yrun.get();
ret.appendLiteral();
yrun.nWords = 0;
xrun.nWords = 0;
}
// till they are not at the end.
} while (!(xrun.end() && yrun.end()));
}
// set the active word.
ret.active.val = this.active.val & other.active.val;
ret.active.nbits = this.active.nbits;
// ensure that the counts are set properly.
ret.doCount();
return ret;
}
private void setBit(int ind, int val) {
assert val == 0 || val == 1;
if (ind >= numBits()) {
int diff = ind - numBits() + 1;
if (active.nbits > 0) {
if (ind + 1 >= nbits + MAXBITS) {
diff -= MAXBITS - active.nbits;
active.val <<= (MAXBITS - active.nbits);
if (diff == 0) active.val += (val != 0 ? 1 : 0);
appendLiteral();
} else {
active.nbits += diff;
active.val <<= diff;
active.val += (val != 0 ? 1 : 0);
diff = 0;
}
}
if (diff != 0) {
int w = diff / MAXBITS;
diff -= w * MAXBITS;
if (diff != 0) {
if (w > 1) {
appendCounter(0, w);
} else if (w != 0) {
appendLiteral();
}
active.nbits = diff;
active.val += (val != 0 ? 1 : 0);
} else if (val != 0) {
if (w > 2) {
appendCounter(0, w - 1);
} else if (w == 2) {
appendLiteral();
}
active.val = 1;
appendLiteral();
} else {
if (w > 1) {
appendCounter(0, w);
} else if (w != 0) {
appendLiteral();
}
}
}
if (numBits() != ind + 1) logger.warning("Warning");
if (nset != 0) nset += (val != 0 ? 1 : 0);
return;
} else if (ind >= nbits) { // modify an active bit
int u = active.val;
if (val != 0) {
active.val |= (1 << (active.nbits - (ind - nbits) - 1));
} else {
active.val &= ~(1 << (active.nbits - (ind - nbits) - 1));
}
if (nset != 0 && (u != active.val)) nset += (val != 0 ? 1 : -1);
return;
} else if (vec.size() * MAXBITS == nbits) { // uncompressed
int i = ind / MAXBITS;
int u = vec.get(i);
int w = (1 << (SECONDBIT - (ind % MAXBITS)));
if (val != 0) vec.setQuick(i, u |= w);
else vec.setQuick(i, u &= ~w);
if (nset != 0 && (vec.getQuick(i) != u)) nset += (val != 0 ? 1 : -1);
return;
}
// the code after this has not been verified at all...
// should proceed with caution.
// compressed bit vector --
// the bit to be modified is in vec
if (RUN_UNTESTED_CODE) {
int idx = 0;
int compressed = 0, cnt = 0, ind1 = 0, ind0 = ind;
int current = 0; // current bit value
while ((ind0 > 0) && (idx < vec.size())) {
int v = vec.getQuick(idx);
if (isAFill(v)) { // a fill
cnt = ((v) & MAXCNT) * MAXBITS;
if (cnt > ind0) { // found the location
current = (isOneFill(v) ? 1 : 0);
compressed = 1;
ind1 = ind0;
ind0 = 0;
} else {
ind0 -= cnt;
ind1 = ind0;
++idx;
}
} else { // a literal word
cnt = MAXBITS;
if (MAXBITS > ind0) { // found the location
current = (1 & ((v) >>> (SECONDBIT - ind0)));
compressed = 0;
ind1 = ind0;
ind0 = 0;
} else {
ind0 -= MAXBITS;
ind1 = ind0;
++idx;
}
}
} // while (ind...
if (ind1 == 0) { // set current and compressed
int v = vec.getQuick(idx);
if (isAFill(v)) {
cnt = (v & MAXCNT) * MAXBITS;
current = (isOneFill(v) ? 1 : 0);
compressed = 1;
} else {
cnt = MAXBITS;
current = (v >>> SECONDBIT);
compressed = 0;
}
}
if (ind0 > 0) // has not found the right location yet.
{
if (ind0 < active.nbits) { // in the active word
ind1 = (1 << (active.nbits - ind0 - 1));
if (val != 0) {
active.val |= ind1;
} else {
active.val &= ~ind1;
}
} else { // extends the current bit vector
ind1 = ind0 - active.nbits - 1;
appendWord(HEADER0 | (ind1 / MAXBITS));
for (ind1 %= MAXBITS; ind1 > 0; --ind1) addOneBit(0);
addOneBit(val != 0 ? 1 : 0);
}
if (nset != 0) nset += val != 0 ? 1 : -1;
return;
}
// locate the bit to be changed, lots of work hidden here
if (current == val) return; // nothing to do
int v = vec.getQuick(idx);
// need to actually modify the bit
if (compressed == 0) {
// toggle a single bit of a literal word
v ^= (1 << (SECONDBIT - ind1));
vec.setQuick(idx, v);
} else if (ind1 < MAXBITS) {
// bit to be modified is in the first word, two pieces
--v;
vec.set(idx, v);
if ((v & MAXCNT) == 1) {
v = (current != 0) ? ALLONES : 0;
vec.setQuick(idx, v);
}
int w = 1 << (SECONDBIT - ind1);
if (val == 0) w ^= ALLONES;
vec.beforeInsert(idx, w);
idx++;
} else if (cnt - ind1 <= MAXBITS) {
// bit to be modified is in the last word, two pieces
--(v);
vec.setQuick(idx, v);
if ((v & MAXCNT) == 1) {
v = (current != 0) ? ALLONES : 0;
vec.setQuick(idx, v);
}
int w = 1 << (cnt - ind1 - 1);
if (val == 0) w ^= ALLONES;
++idx;
vec.beforeInsert(idx, w);
} else { // the counter breaks into three pieces
int u[] = new int[2], w;
u[0] = ind1 / MAXBITS;
w = (v & MAXCNT) - u[0] - 1;
u[1] = 1 << (SECONDBIT - ind1 + u[0] * MAXBITS);
if (val == 0) {
u[0] = (u[0] > 1) ? (HEADER1 | u[0]) : (ALLONES);
u[1] ^= ALLONES;
w = (w > 1) ? (HEADER1 | w) : (ALLONES);
} else {
u[0] = (u[0] > 1) ? (HEADER0 | u[0]) : 0;
w = (w > 1) ? (HEADER0 | w) : 0;
}
vec.setQuick(idx, w);
vec.beforeInsertAllOf(idx, Arrays.asList(u));
}
if (nset != 0) nset += val != 0 ? 1 : -1;
} else {
throw new AssertionError("Untested code detected, would rather die than run this");
}
}
/**
* Parses the provided FSMPDA and converts the old transitions to new ones. The {@link #newStates}
* list and the {@link #oldToNewStates} mapping should already be populated before this method is
* called.
*
* @param fsm
* @throws ResourceInstantiationException
*/
protected void createNewTransitions(FSMPDA fsm) throws ResourceInstantiationException {
LinkedList<StatePDA> oldStatesQueue = new LinkedList<StatePDA>();
oldStatesQueue.add(fsm.getInitialState());
IntArrayList visitedOldStates = new IntArrayList();
while (oldStatesQueue.size() > 0) {
StatePDA anOldState = oldStatesQueue.removeFirst();
if (visitedOldStates.contains(anOldState.getIndex())) {
// state already processed -> nothing to do
} else {
if (!oldToNewStates.containsKey(anOldState.getIndex())) {
throw new ResourceInstantiationException(
"State mapping org.p4535992.mvc.error: "
+ "old state not associated with a new state!");
}
SPTBase.State newState = newStates.get(oldToNewStates.get(anOldState.getIndex()));
// now process all transitions
List<SPTBase.Transition> newTransitions = new LinkedList<SPTBase.Transition>();
for (gate.fsm.Transition t : anOldState.getTransitions()) {
TransitionPDA anOldTransition = (TransitionPDA) t;
if (!visitedOldStates.contains(anOldTransition.getTarget().getIndex())) {
oldStatesQueue.add((StatePDA) anOldTransition.getTarget());
}
if (!oldToNewStates.containsKey(anOldTransition.getTarget().getIndex())) {
throw new ResourceInstantiationException(
"State mapping org.p4535992.mvc.error: "
+ "old target state not associated with a new state!");
}
int newStateTarget = oldToNewStates.get(anOldTransition.getTarget().getIndex());
SPTBase.Transition newTransition = new SPTBase.Transition();
newTransitions.add(newTransition);
newTransition.nextState = newStateTarget;
newTransition.type = anOldTransition.getType();
if (newTransition.type != TransitionPDA.TYPE_CONSTRAINT) {
continue;
}
Constraint[] oldConstraints = anOldTransition.getConstraints().getConstraints();
List<int[]> newConstraints = new ArrayList<int[]>();
for (int i = 0; i < oldConstraints.length; i++) {
String annType = oldConstraints[i].getAnnotType();
int annTypeInt = annotationTypes.indexOf(annType);
if (annTypeInt < 0) {
annotationTypes.add(annType);
annTypeInt = annotationTypes.size() - 1;
}
int[] newConstraint = new int[oldConstraints[i].getAttributeSeq().size() + 2];
newConstraints.add(newConstraint);
newConstraint[0] = annTypeInt;
newConstraint[1] = oldConstraints[i].isNegated() ? -1 : 0;
int predId = 2;
for (ConstraintPredicate oldPredicate : oldConstraints[i].getAttributeSeq()) {
newConstraint[predId++] = convertPredicate(annType, oldPredicate);
}
}
// now save the new constraints
newTransition.constraints = new int[newConstraints.size()][];
newTransition.constraints = newConstraints.toArray(newTransition.constraints);
}
// convert the transitions list to an array
newState.transitions = new SPTBase.Transition[newTransitions.size()];
newState.transitions = newTransitions.toArray(newState.transitions);
// finally, mark the old state as visited.
visitedOldStates.add(anOldState.getIndex());
}
}
}