/// <param name="graphs">a Map from String categories to TransducerGraph objects</param>
/// <param name="unaryRules">is a Set of UnaryRule objects that we need to add</param>
/// <param name="binaryRules">is a Set of BinaryRule objects that we need to add</param>
/// <returns>a new Pair of UnaryGrammar, BinaryGrammar</returns>
protected internal virtual Pair <UnaryGrammar, BinaryGrammar> ConvertGraphsToGrammar(ICollection <TransducerGraph> graphs, ICollection <UnaryRule> unaryRules, ICollection <BinaryRule> binaryRules)
{
// first go through all the existing rules and number them with new numberer
newStateIndex = new HashIndex <string>();
foreach (UnaryRule rule in unaryRules)
{
string parent = stateIndex.Get(rule.parent);
rule.parent = newStateIndex.AddToIndex(parent);
string child = stateIndex.Get(rule.child);
rule.child = newStateIndex.AddToIndex(child);
}
foreach (BinaryRule rule_1 in binaryRules)
{
string parent = stateIndex.Get(rule_1.parent);
rule_1.parent = newStateIndex.AddToIndex(parent);
string leftChild = stateIndex.Get(rule_1.leftChild);
rule_1.leftChild = newStateIndex.AddToIndex(leftChild);
string rightChild = stateIndex.Get(rule_1.rightChild);
rule_1.rightChild = newStateIndex.AddToIndex(rightChild);
}
// now go through the graphs and add the rules
foreach (TransducerGraph graph in graphs)
{
object startNode = graph.GetStartNode();
foreach (TransducerGraph.Arc arc in graph.GetArcs())
{
// TODO: make sure these are the strings we're looking for
string source = arc.GetSourceNode().ToString();
string target = arc.GetTargetNode().ToString();
object input = arc.GetInput();
string inputString = input.ToString();
double output = ((double)arc.GetOutput());
if (source.Equals(startNode))
{
// make a UnaryRule
UnaryRule ur = new UnaryRule(newStateIndex.AddToIndex(target), newStateIndex.AddToIndex(inputString), SmartNegate(output));
unaryRules.Add(ur);
}
else
{
if (inputString.Equals(End) || inputString.Equals(Epsilon))
{
// make a UnaryRule
UnaryRule ur = new UnaryRule(newStateIndex.AddToIndex(target), newStateIndex.AddToIndex(source), SmartNegate(output));
unaryRules.Add(ur);
}
else
{
// make a BinaryRule
// figure out whether the input was generated on the left or right
int length = inputString.Length;
char leftOrRight = inputString[length - 1];
inputString = Sharpen.Runtime.Substring(inputString, 0, length - 1);
BinaryRule br;
if (leftOrRight == '<' || leftOrRight == '[')
{
br = new BinaryRule(newStateIndex.AddToIndex(target), newStateIndex.AddToIndex(inputString), newStateIndex.AddToIndex(source), SmartNegate(output));
}
else
{
if (leftOrRight == '>' || leftOrRight == ']')
{
br = new BinaryRule(newStateIndex.AddToIndex(target), newStateIndex.AddToIndex(source), newStateIndex.AddToIndex(inputString), SmartNegate(output));
}
else
{
throw new Exception("Arc input is in unexpected format: " + arc);
}
}
binaryRules.Add(br);
}
}
}
}
// by now, the unaryRules and binaryRules Sets have old untouched and new rules with scores
ClassicCounter <string> symbolCounter = new ClassicCounter <string>();
if (outputType == RawCounts)
{
// now we take the sets of rules and turn them into grammars
// the scores of the rules we are given are actually counts
// so we count parent symbol occurrences
foreach (UnaryRule rule_2 in unaryRules)
{
symbolCounter.IncrementCount(newStateIndex.Get(rule_2.parent), rule_2.score);
}
foreach (BinaryRule rule_3 in binaryRules)
{
symbolCounter.IncrementCount(newStateIndex.Get(rule_3.parent), rule_3.score);
}
}
// now we put the rules in the grammars
int numStates = newStateIndex.Size();
// this should be smaller than last one
int numRules = 0;
UnaryGrammar ug = new UnaryGrammar(newStateIndex);
BinaryGrammar bg = new BinaryGrammar(newStateIndex);
foreach (UnaryRule rule_4 in unaryRules)
{
if (outputType == RawCounts)
{
double count = symbolCounter.GetCount(newStateIndex.Get(rule_4.parent));
rule_4.score = (float)Math.Log(rule_4.score / count);
}
ug.AddRule(rule_4);
numRules++;
}
foreach (BinaryRule rule_5 in binaryRules)
{
if (outputType == RawCounts)
{
double count = symbolCounter.GetCount(newStateIndex.Get(rule_5.parent));
rule_5.score = (float)Math.Log((rule_5.score - op.trainOptions.ruleDiscount) / count);
}
bg.AddRule(rule_5);
numRules++;
}
if (verbose)
{
System.Console.Out.WriteLine("Number of minimized rules: " + numRules);
System.Console.Out.WriteLine("Number of minimized states: " + newStateIndex.Size());
}
ug.PurgeRules();
bg.SplitRules();
return(new Pair <UnaryGrammar, BinaryGrammar>(ug, bg));
}
/* some documentation for Roger's convenience
* {pcfg,dep,combo}{PE,DE,TE} are precision/dep/tagging evals for the models
*
* parser is the PCFG parser
* dparser is the dependency parser
* bparser is the combining parser
*
* during testing:
* tree is the test tree (gold tree)
* binaryTree is the gold tree binarized
* tree2b is the best PCFG paser, binarized
* tree2 is the best PCFG parse (debinarized)
* tree3 is the dependency parse, binarized
* tree3db is the dependency parser, debinarized
* tree4 is the best combo parse, binarized and then debinarized
* tree4b is the best combo parse, binarized
*/
public static void Main(string[] args)
{
Options op = new Options(new EnglishTreebankParserParams());
// op.tlpParams may be changed to something else later, so don't use it till
// after options are parsed.
StringUtils.LogInvocationString(log, args);
string path = "/u/nlp/stuff/corpora/Treebank3/parsed/mrg/wsj";
int trainLow = 200;
int trainHigh = 2199;
int testLow = 2200;
int testHigh = 2219;
string serializeFile = null;
int i = 0;
while (i < args.Length && args[i].StartsWith("-"))
{
if (Sharpen.Runtime.EqualsIgnoreCase(args[i], "-path") && (i + 1 < args.Length))
{
path = args[i + 1];
i += 2;
}
else
{
if (Sharpen.Runtime.EqualsIgnoreCase(args[i], "-train") && (i + 2 < args.Length))
{
trainLow = System.Convert.ToInt32(args[i + 1]);
trainHigh = System.Convert.ToInt32(args[i + 2]);
i += 3;
}
else
{
if (Sharpen.Runtime.EqualsIgnoreCase(args[i], "-test") && (i + 2 < args.Length))
{
testLow = System.Convert.ToInt32(args[i + 1]);
testHigh = System.Convert.ToInt32(args[i + 2]);
i += 3;
}
else
{
if (Sharpen.Runtime.EqualsIgnoreCase(args[i], "-serialize") && (i + 1 < args.Length))
{
serializeFile = args[i + 1];
i += 2;
}
else
{
if (Sharpen.Runtime.EqualsIgnoreCase(args[i], "-tLPP") && (i + 1 < args.Length))
{
try
{
op.tlpParams = (ITreebankLangParserParams)System.Activator.CreateInstance(Sharpen.Runtime.GetType(args[i + 1]));
}
catch (TypeLoadException e)
{
log.Info("Class not found: " + args[i + 1]);
throw new Exception(e);
}
catch (InstantiationException e)
{
log.Info("Couldn't instantiate: " + args[i + 1] + ": " + e.ToString());
throw new Exception(e);
}
catch (MemberAccessException e)
{
log.Info("illegal access" + e);
throw new Exception(e);
}
i += 2;
}
else
{
if (args[i].Equals("-encoding"))
{
// sets encoding for TreebankLangParserParams
op.tlpParams.SetInputEncoding(args[i + 1]);
op.tlpParams.SetOutputEncoding(args[i + 1]);
i += 2;
}
else
{
i = op.SetOptionOrWarn(args, i);
}
}
}
}
}
}
}
// System.out.println(tlpParams.getClass());
ITreebankLanguagePack tlp = op.tlpParams.TreebankLanguagePack();
op.trainOptions.sisterSplitters = Generics.NewHashSet(Arrays.AsList(op.tlpParams.SisterSplitters()));
// BinarizerFactory.TreeAnnotator.setTreebankLang(tlpParams);
PrintWriter pw = op.tlpParams.Pw();
op.testOptions.Display();
op.trainOptions.Display();
op.Display();
op.tlpParams.Display();
// setup tree transforms
Treebank trainTreebank = op.tlpParams.MemoryTreebank();
MemoryTreebank testTreebank = op.tlpParams.TestMemoryTreebank();
// Treebank blippTreebank = ((EnglishTreebankParserParams) tlpParams).diskTreebank();
// String blippPath = "/afs/ir.stanford.edu/data/linguistic-data/BLLIP-WSJ/";
// blippTreebank.loadPath(blippPath, "", true);
Timing.StartTime();
log.Info("Reading trees...");
testTreebank.LoadPath(path, new NumberRangeFileFilter(testLow, testHigh, true));
if (op.testOptions.increasingLength)
{
testTreebank.Sort(new TreeLengthComparator());
}
trainTreebank.LoadPath(path, new NumberRangeFileFilter(trainLow, trainHigh, true));
Timing.Tick("done.");
log.Info("Binarizing trees...");
TreeAnnotatorAndBinarizer binarizer;
if (!op.trainOptions.leftToRight)
{
binarizer = new TreeAnnotatorAndBinarizer(op.tlpParams, op.forceCNF, !op.trainOptions.OutsideFactor(), true, op);
}
else
{
binarizer = new TreeAnnotatorAndBinarizer(op.tlpParams.HeadFinder(), new LeftHeadFinder(), op.tlpParams, op.forceCNF, !op.trainOptions.OutsideFactor(), true, op);
}
CollinsPuncTransformer collinsPuncTransformer = null;
if (op.trainOptions.collinsPunc)
{
collinsPuncTransformer = new CollinsPuncTransformer(tlp);
}
ITreeTransformer debinarizer = new Debinarizer(op.forceCNF);
IList <Tree> binaryTrainTrees = new List <Tree>();
if (op.trainOptions.selectiveSplit)
{
op.trainOptions.splitters = ParentAnnotationStats.GetSplitCategories(trainTreebank, op.trainOptions.tagSelectiveSplit, 0, op.trainOptions.selectiveSplitCutOff, op.trainOptions.tagSelectiveSplitCutOff, op.tlpParams.TreebankLanguagePack());
if (op.trainOptions.deleteSplitters != null)
{
IList <string> deleted = new List <string>();
foreach (string del in op.trainOptions.deleteSplitters)
{
string baseDel = tlp.BasicCategory(del);
bool checkBasic = del.Equals(baseDel);
for (IEnumerator <string> it = op.trainOptions.splitters.GetEnumerator(); it.MoveNext();)
{
string elem = it.Current;
string baseElem = tlp.BasicCategory(elem);
bool delStr = checkBasic && baseElem.Equals(baseDel) || elem.Equals(del);
if (delStr)
{
it.Remove();
deleted.Add(elem);
}
}
}
log.Info("Removed from vertical splitters: " + deleted);
}
}
if (op.trainOptions.selectivePostSplit)
{
ITreeTransformer myTransformer = new TreeAnnotator(op.tlpParams.HeadFinder(), op.tlpParams, op);
Treebank annotatedTB = trainTreebank.Transform(myTransformer);
op.trainOptions.postSplitters = ParentAnnotationStats.GetSplitCategories(annotatedTB, true, 0, op.trainOptions.selectivePostSplitCutOff, op.trainOptions.tagSelectivePostSplitCutOff, op.tlpParams.TreebankLanguagePack());
}
if (op.trainOptions.hSelSplit)
{
binarizer.SetDoSelectiveSplit(false);
foreach (Tree tree in trainTreebank)
{
if (op.trainOptions.collinsPunc)
{
tree = collinsPuncTransformer.TransformTree(tree);
}
//tree.pennPrint(tlpParams.pw());
tree = binarizer.TransformTree(tree);
}
//binaryTrainTrees.add(tree);
binarizer.SetDoSelectiveSplit(true);
}
foreach (Tree tree_1 in trainTreebank)
{
if (op.trainOptions.collinsPunc)
{
tree_1 = collinsPuncTransformer.TransformTree(tree_1);
}
tree_1 = binarizer.TransformTree(tree_1);
binaryTrainTrees.Add(tree_1);
}
if (op.testOptions.verbose)
{
binarizer.DumpStats();
}
IList <Tree> binaryTestTrees = new List <Tree>();
foreach (Tree tree_2 in testTreebank)
{
if (op.trainOptions.collinsPunc)
{
tree_2 = collinsPuncTransformer.TransformTree(tree_2);
}
tree_2 = binarizer.TransformTree(tree_2);
binaryTestTrees.Add(tree_2);
}
Timing.Tick("done.");
// binarization
BinaryGrammar bg = null;
UnaryGrammar ug = null;
IDependencyGrammar dg = null;
// DependencyGrammar dgBLIPP = null;
ILexicon lex = null;
IIndex <string> stateIndex = new HashIndex <string>();
// extract grammars
IExtractor <Pair <UnaryGrammar, BinaryGrammar> > bgExtractor = new BinaryGrammarExtractor(op, stateIndex);
//Extractor bgExtractor = new SmoothedBinaryGrammarExtractor();//new BinaryGrammarExtractor();
// Extractor lexExtractor = new LexiconExtractor();
//Extractor dgExtractor = new DependencyMemGrammarExtractor();
if (op.doPCFG)
{
log.Info("Extracting PCFG...");
Pair <UnaryGrammar, BinaryGrammar> bgug = null;
if (op.trainOptions.cheatPCFG)
{
IList <Tree> allTrees = new List <Tree>(binaryTrainTrees);
Sharpen.Collections.AddAll(allTrees, binaryTestTrees);
bgug = bgExtractor.Extract(allTrees);
}
else
{
bgug = bgExtractor.Extract(binaryTrainTrees);
}
bg = bgug.second;
bg.SplitRules();
ug = bgug.first;
ug.PurgeRules();
Timing.Tick("done.");
}
log.Info("Extracting Lexicon...");
IIndex <string> wordIndex = new HashIndex <string>();
IIndex <string> tagIndex = new HashIndex <string>();
lex = op.tlpParams.Lex(op, wordIndex, tagIndex);
lex.InitializeTraining(binaryTrainTrees.Count);
lex.Train(binaryTrainTrees);
lex.FinishTraining();
Timing.Tick("done.");
if (op.doDep)
{
log.Info("Extracting Dependencies...");
binaryTrainTrees.Clear();
IExtractor <IDependencyGrammar> dgExtractor = new MLEDependencyGrammarExtractor(op, wordIndex, tagIndex);
// dgBLIPP = (DependencyGrammar) dgExtractor.extract(new ConcatenationIterator(trainTreebank.iterator(),blippTreebank.iterator()),new TransformTreeDependency(tlpParams,true));
// DependencyGrammar dg1 = dgExtractor.extract(trainTreebank.iterator(), new TransformTreeDependency(op.tlpParams, true));
//dgBLIPP=(DependencyGrammar)dgExtractor.extract(blippTreebank.iterator(),new TransformTreeDependency(tlpParams));
//dg = (DependencyGrammar) dgExtractor.extract(new ConcatenationIterator(trainTreebank.iterator(),blippTreebank.iterator()),new TransformTreeDependency(tlpParams));
// dg=new DependencyGrammarCombination(dg1,dgBLIPP,2);
dg = dgExtractor.Extract(binaryTrainTrees);
//uses information whether the words are known or not, discards unknown words
Timing.Tick("done.");
//System.out.print("Extracting Unknown Word Model...");
//UnknownWordModel uwm = (UnknownWordModel)uwmExtractor.extract(binaryTrainTrees);
//Timing.tick("done.");
System.Console.Out.Write("Tuning Dependency Model...");
dg.Tune(binaryTestTrees);
//System.out.println("TUNE DEPS: "+tuneDeps);
Timing.Tick("done.");
}
BinaryGrammar boundBG = bg;
UnaryGrammar boundUG = ug;
IGrammarProjection gp = new NullGrammarProjection(bg, ug);
// serialization
if (serializeFile != null)
{
log.Info("Serializing parser...");
LexicalizedParser parser = new LexicalizedParser(lex, bg, ug, dg, stateIndex, wordIndex, tagIndex, op);
parser.SaveParserToSerialized(serializeFile);
Timing.Tick("done.");
}
// test: pcfg-parse and output
ExhaustivePCFGParser parser_1 = null;
if (op.doPCFG)
{
parser_1 = new ExhaustivePCFGParser(boundBG, boundUG, lex, op, stateIndex, wordIndex, tagIndex);
}
ExhaustiveDependencyParser dparser = ((op.doDep && !op.testOptions.useFastFactored) ? new ExhaustiveDependencyParser(dg, lex, op, wordIndex, tagIndex) : null);
IScorer scorer = (op.doPCFG ? new TwinScorer(new ProjectionScorer(parser_1, gp, op), dparser) : null);
//Scorer scorer = parser;
BiLexPCFGParser bparser = null;
if (op.doPCFG && op.doDep)
{
bparser = (op.testOptions.useN5) ? new BiLexPCFGParser.N5BiLexPCFGParser(scorer, parser_1, dparser, bg, ug, dg, lex, op, gp, stateIndex, wordIndex, tagIndex) : new BiLexPCFGParser(scorer, parser_1, dparser, bg, ug, dg, lex, op, gp, stateIndex
, wordIndex, tagIndex);
}
Evalb pcfgPE = new Evalb("pcfg PE", true);
Evalb comboPE = new Evalb("combo PE", true);
AbstractEval pcfgCB = new Evalb.CBEval("pcfg CB", true);
AbstractEval pcfgTE = new TaggingEval("pcfg TE");
AbstractEval comboTE = new TaggingEval("combo TE");
AbstractEval pcfgTEnoPunct = new TaggingEval("pcfg nopunct TE");
AbstractEval comboTEnoPunct = new TaggingEval("combo nopunct TE");
AbstractEval depTE = new TaggingEval("depnd TE");
AbstractEval depDE = new UnlabeledAttachmentEval("depnd DE", true, null, tlp.PunctuationWordRejectFilter());
AbstractEval comboDE = new UnlabeledAttachmentEval("combo DE", true, null, tlp.PunctuationWordRejectFilter());
if (op.testOptions.evalb)
{
EvalbFormatWriter.InitEVALBfiles(op.tlpParams);
}
// int[] countByLength = new int[op.testOptions.maxLength+1];
// Use a reflection ruse, so one can run this without needing the
// tagger. Using a function rather than a MaxentTagger means we
// can distribute a version of the parser that doesn't include the
// entire tagger.
IFunction <IList <IHasWord>, List <TaggedWord> > tagger = null;
if (op.testOptions.preTag)
{
try
{
Type[] argsClass = new Type[] { typeof(string) };
object[] arguments = new object[] { op.testOptions.taggerSerializedFile };
tagger = (IFunction <IList <IHasWord>, List <TaggedWord> >)Sharpen.Runtime.GetType("edu.stanford.nlp.tagger.maxent.MaxentTagger").GetConstructor(argsClass).NewInstance(arguments);
}
catch (Exception e)
{
log.Info(e);
log.Info("Warning: No pretagging of sentences will be done.");
}
}
for (int tNum = 0; tNum < ttSize; tNum++)
{
Tree tree = testTreebank[tNum];
int testTreeLen = tree_2.Yield().Count;
if (testTreeLen > op.testOptions.maxLength)
{
continue;
}
Tree binaryTree = binaryTestTrees[tNum];
// countByLength[testTreeLen]++;
System.Console.Out.WriteLine("-------------------------------------");
System.Console.Out.WriteLine("Number: " + (tNum + 1));
System.Console.Out.WriteLine("Length: " + testTreeLen);
//tree.pennPrint(pw);
// System.out.println("XXXX The binary tree is");
// binaryTree.pennPrint(pw);
//System.out.println("Here are the tags in the lexicon:");
//System.out.println(lex.showTags());
//System.out.println("Here's the tagnumberer:");
//System.out.println(Numberer.getGlobalNumberer("tags").toString());
long timeMil1 = Runtime.CurrentTimeMillis();
Timing.Tick("Starting parse.");
if (op.doPCFG)
{
//log.info(op.testOptions.forceTags);
if (op.testOptions.forceTags)
{
if (tagger != null)
{
//System.out.println("Using a tagger to set tags");
//System.out.println("Tagged sentence as: " + tagger.processSentence(cutLast(wordify(binaryTree.yield()))).toString(false));
parser_1.Parse(AddLast(tagger.Apply(CutLast(Wordify(binaryTree.Yield())))));
}
else
{
//System.out.println("Forcing tags to match input.");
parser_1.Parse(CleanTags(binaryTree.TaggedYield(), tlp));
}
}
else
{
// System.out.println("XXXX Parsing " + binaryTree.yield());
parser_1.Parse(binaryTree.YieldHasWord());
}
}
//Timing.tick("Done with pcfg phase.");
if (op.doDep)
{
dparser.Parse(binaryTree.YieldHasWord());
}
//Timing.tick("Done with dependency phase.");
bool bothPassed = false;
if (op.doPCFG && op.doDep)
{
bothPassed = bparser.Parse(binaryTree.YieldHasWord());
}
//Timing.tick("Done with combination phase.");
long timeMil2 = Runtime.CurrentTimeMillis();
long elapsed = timeMil2 - timeMil1;
log.Info("Time: " + ((int)(elapsed / 100)) / 10.00 + " sec.");
//System.out.println("PCFG Best Parse:");
Tree tree2b = null;
Tree tree2 = null;
//System.out.println("Got full best parse...");
if (op.doPCFG)
{
tree2b = parser_1.GetBestParse();
tree2 = debinarizer.TransformTree(tree2b);
}
//System.out.println("Debinarized parse...");
//tree2.pennPrint();
//System.out.println("DepG Best Parse:");
Tree tree3 = null;
Tree tree3db = null;
if (op.doDep)
{
tree3 = dparser.GetBestParse();
// was: but wrong Tree tree3db = debinarizer.transformTree(tree2);
tree3db = debinarizer.TransformTree(tree3);
tree3.PennPrint(pw);
}
//tree.pennPrint();
//((Tree)binaryTrainTrees.get(tNum)).pennPrint();
//System.out.println("Combo Best Parse:");
Tree tree4 = null;
if (op.doPCFG && op.doDep)
{
try
{
tree4 = bparser.GetBestParse();
if (tree4 == null)
{
tree4 = tree2b;
}
}
catch (ArgumentNullException)
{
log.Info("Blocked, using PCFG parse!");
tree4 = tree2b;
}
}
if (op.doPCFG && !bothPassed)
{
tree4 = tree2b;
}
//tree4.pennPrint();
if (op.doDep)
{
depDE.Evaluate(tree3, binaryTree, pw);
depTE.Evaluate(tree3db, tree_2, pw);
}
ITreeTransformer tc = op.tlpParams.Collinizer();
ITreeTransformer tcEvalb = op.tlpParams.CollinizerEvalb();
if (op.doPCFG)
{
// System.out.println("XXXX Best PCFG was: ");
// tree2.pennPrint();
// System.out.println("XXXX Transformed best PCFG is: ");
// tc.transformTree(tree2).pennPrint();
//System.out.println("True Best Parse:");
//tree.pennPrint();
//tc.transformTree(tree).pennPrint();
pcfgPE.Evaluate(tc.TransformTree(tree2), tc.TransformTree(tree_2), pw);
pcfgCB.Evaluate(tc.TransformTree(tree2), tc.TransformTree(tree_2), pw);
Tree tree4b = null;
if (op.doDep)
{
comboDE.Evaluate((bothPassed ? tree4 : tree3), binaryTree, pw);
tree4b = tree4;
tree4 = debinarizer.TransformTree(tree4);
if (op.nodePrune)
{
NodePruner np = new NodePruner(parser_1, debinarizer);
tree4 = np.Prune(tree4);
}
//tree4.pennPrint();
comboPE.Evaluate(tc.TransformTree(tree4), tc.TransformTree(tree_2), pw);
}
//pcfgTE.evaluate(tree2, tree);
pcfgTE.Evaluate(tcEvalb.TransformTree(tree2), tcEvalb.TransformTree(tree_2), pw);
pcfgTEnoPunct.Evaluate(tc.TransformTree(tree2), tc.TransformTree(tree_2), pw);
if (op.doDep)
{
comboTE.Evaluate(tcEvalb.TransformTree(tree4), tcEvalb.TransformTree(tree_2), pw);
comboTEnoPunct.Evaluate(tc.TransformTree(tree4), tc.TransformTree(tree_2), pw);
}
System.Console.Out.WriteLine("PCFG only: " + parser_1.ScoreBinarizedTree(tree2b, 0));
//tc.transformTree(tree2).pennPrint();
tree2.PennPrint(pw);
if (op.doDep)
{
System.Console.Out.WriteLine("Combo: " + parser_1.ScoreBinarizedTree(tree4b, 0));
// tc.transformTree(tree4).pennPrint(pw);
tree4.PennPrint(pw);
}
System.Console.Out.WriteLine("Correct:" + parser_1.ScoreBinarizedTree(binaryTree, 0));
/*
* if (parser.scoreBinarizedTree(tree2b,true) < parser.scoreBinarizedTree(binaryTree,true)) {
* System.out.println("SCORE INVERSION");
* parser.validateBinarizedTree(binaryTree,0);
* }
*/
tree_2.PennPrint(pw);
}
// end if doPCFG
if (op.testOptions.evalb)
{
if (op.doPCFG && op.doDep)
{
EvalbFormatWriter.WriteEVALBline(tcEvalb.TransformTree(tree_2), tcEvalb.TransformTree(tree4));
}
else
{
if (op.doPCFG)
{
EvalbFormatWriter.WriteEVALBline(tcEvalb.TransformTree(tree_2), tcEvalb.TransformTree(tree2));
}
else
{
if (op.doDep)
{
EvalbFormatWriter.WriteEVALBline(tcEvalb.TransformTree(tree_2), tcEvalb.TransformTree(tree3db));
}
}
}
}
}
// end for each tree in test treebank
if (op.testOptions.evalb)
{
EvalbFormatWriter.CloseEVALBfiles();
}
// op.testOptions.display();
if (op.doPCFG)
{
pcfgPE.Display(false, pw);
System.Console.Out.WriteLine("Grammar size: " + stateIndex.Size());
pcfgCB.Display(false, pw);
if (op.doDep)
{
comboPE.Display(false, pw);
}
pcfgTE.Display(false, pw);
pcfgTEnoPunct.Display(false, pw);
if (op.doDep)
{
comboTE.Display(false, pw);
comboTEnoPunct.Display(false, pw);
}
}
if (op.doDep)
{
depTE.Display(false, pw);
depDE.Display(false, pw);
}
if (op.doPCFG && op.doDep)
{
comboDE.Display(false, pw);
}
}