foundZero = true; } else { addIfCompetitive(path); addIfCompetitive(path);
/** Adds all leaving arcs, including 'finished' arc, if * the node is final, from this node into the queue. */ public void addStartPaths(FST.Arc<T> node, T startOutput, boolean allowEmptyString, IntsRefBuilder input, float boost, CharSequence context, int payload) throws IOException { // De-dup NO_OUTPUT since it must be a singleton: if (startOutput.equals(fst.outputs.getNoOutput())) { startOutput = fst.outputs.getNoOutput(); } FSTPath<T> path = new FSTPath<>(startOutput, node, input, boost, context, payload); fst.readFirstTargetArc(node, path.arc, bytesReader); // Bootstrap: find the min starting arc while (true) { if (allowEmptyString || path.arc.label != FST.END_LABEL) { addIfCompetitive(path); } if (path.arc.isLast()) { break; } fst.readNextArc(path.arc, bytesReader); } }
foundZero = true; } else { addIfCompetitive(path); addIfCompetitive(path);
foundZero = true; } else { addIfCompetitive(path); addIfCompetitive(path);
foundZero = true; } else { addIfCompetitive(path); addIfCompetitive(path);
/** Adds all leaving arcs, including 'finished' arc, if * the node is final, from this node into the queue. */ public void addStartPaths(FST.Arc<T> node, T startOutput, boolean allowEmptyString, IntsRefBuilder input, float boost, CharSequence context) throws IOException { // De-dup NO_OUTPUT since it must be a singleton: if (startOutput.equals(fst.outputs.getNoOutput())) { startOutput = fst.outputs.getNoOutput(); } FSTPath<T> path = new FSTPath<>(startOutput, node, input, boost, context); fst.readFirstTargetArc(node, path.arc, bytesReader); //System.out.println("add start paths"); // Bootstrap: find the min starting arc while (true) { if (allowEmptyString || path.arc.label != FST.END_LABEL) { addIfCompetitive(path); } if (path.arc.isLast()) { break; } fst.readNextArc(path.arc, bytesReader); } }
/** Adds all leaving arcs, including 'finished' arc, if * the node is final, from this node into the queue. */ public void addStartPaths(FST.Arc<T> node, T startOutput, boolean allowEmptyString, IntsRefBuilder input, float boost, CharSequence context) throws IOException { // De-dup NO_OUTPUT since it must be a singleton: if (startOutput.equals(fst.outputs.getNoOutput())) { startOutput = fst.outputs.getNoOutput(); } FSTPath<T> path = new FSTPath<>(startOutput, node, input, boost, context); fst.readFirstTargetArc(node, path.arc, bytesReader); //System.out.println("add start paths"); // Bootstrap: find the min starting arc while (true) { if (allowEmptyString || path.arc.label != FST.END_LABEL) { addIfCompetitive(path); } if (path.arc.isLast()) { break; } fst.readNextArc(path.arc, bytesReader); } }
/** Adds all leaving arcs, including 'finished' arc, if * the node is final, from this node into the queue. */ public void addStartPaths(FST.Arc<T> node, T startOutput, boolean allowEmptyString, IntsRefBuilder input, float boost, CharSequence context, int payload) throws IOException { // De-dup NO_OUTPUT since it must be a singleton: if (startOutput.equals(fst.outputs.getNoOutput())) { startOutput = fst.outputs.getNoOutput(); } FSTPath<T> path = new FSTPath<>(startOutput, node, input, boost, context, payload); fst.readFirstTargetArc(node, path.arc, bytesReader); // Bootstrap: find the min starting arc while (true) { if (allowEmptyString || path.arc.label != FST.END_LABEL) { addIfCompetitive(path); } if (path.arc.isLast()) { break; } fst.readNextArc(path.arc, bytesReader); } }