C96-1013 them , we are developing a set of graph matching rules . Figure 2 exemplifies
C96-1013 relations is essential to the graph matching operations we use for the integration
E09-1097 modifiers to head words as a bipartite graph matching problem . This is similar to
C96-1013 CCKG . If matching surpasses the graph matching threshold , perform integration
C96-1013 this rea - son , we establish a graph matching threshold to decide whether we
D14-1085 as a maximum-weight bipartite graph matching problem ( Figure 4 ) . Formally
C96-1013 Again , if matching is over the graph matching thresh - old , perform integration
E09-1097 heads as a weighted bipartite graph matching ( or assignment ) problem , a
C96-1013 hierarchy , relation hierarchy and graph matching operations , we now describe
D13-1038 representation , REG can be formulated as a graph matching algorithm similar to that described
H05-1049 Linguistics Robust Textual Inference via Graph Matching </title> Aria D Haghighi Andrew
D10-1042 abstracting entity translation as a graph matching problem of two graphs Ge and
C04-1021 of a valid interpretation to a graph matching problem ( Popescu et al. , 2003
J12-1007 , and textual entailment using graph matching . Methods for word sense and
E09-1097 spanning tree as a weighted bipartite graph matching problem ( or the assignment problem
C96-1013 our definitions , we can use the graph matching operations defined in ( Sowa
D14-1085 sentence compression . The resulting graph matching problem is solved using the NetworkX
E09-1097 selection as a weighted bipartite graph matching ( or assignment ) problem . This
C04-1021 reducing semantic interpretation to a graph matching problem that is solved by MaxFlow
D13-1038 the corresponding hyperarc . 3.4 Graph Matching for REG Now the hypergraph representing
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