A00-2035 and POS tags . This is why the " lexical lookup " method is the major source
A92-1004 subclass fields are filled via lexical lookup . The lexicon is organized into
A00-2035 is implemented by applying the lexical lookup method where a word is assigned
A00-2035 the error rate from 15 % of the lexical lookup approach to 5 % . This suggests
A88-1013 new lexical en - tries . In the lexical lookup stage , an acceptability threshold
A88-1013 performed on the base form , and lexical lookup is performed after each transformation
C92-1014 save disk accesses by limiting lexical lookups of intermediate forms to just
C92-1040 A CCG deriw ~ tion starts with lexical lookup , which identifies the functional
C86-1035 attack ) phase . 2 . We assume that lexical lookup for the entire sentence is done
C00-1057 standardized form . This facilitates lexical lookup and allows tile system to map
C92-1014 inflectional analyzer when to attempt a lexical lookup of an intermediate form stem
A00-2035 which is an improvement over the lexical lookup approach by 2-3 times . On the
A88-1013 of candidate fixes found during lexical lookup was not ordered or pruned before
C88-1058 string , the first steps being lexical lookup and counting and indexing all
C00-1008 slight modification of sl ; andard lexical lookup , lexical entries are al ) propriately
C94-2127 step , whic : h corresponds to lexical lookup in chart parsers , is to look
E03-2014 system performs tokenisation , lexical lookup , and HMM-POS disambiguation
C00-1057 improved . Cohunn A provides baseline lexical lookup and parsing times based on untagged
A94-1045 of a system which must perform lexical lookup on a vast dictionary , followed
A88-1013 , and can be implemented as a lexical lookup routine which heuristically prunes
hide detail