measure(ment),15-2-H01-1058,bq interpolation </term> , improve the <term> performance </term> but fall short of the <term> performance
measure(ment),21-2-H01-1058,bq performance </term> but fall short of the <term> performance </term> of an <term> oracle </term> . The <term>
other,24-2-H01-1058,bq the <term> performance </term> of an <term> oracle </term> . The <term> oracle </term> knows the
other,1-3-H01-1058,bq </term> of an <term> oracle </term> . The <term> oracle </term> knows the <term> reference word string
measure(ment),15-3-H01-1058,bq <term> word string </term> with the best <term> performance </term> ( typically , <term> word or semantic
other,3-4-H01-1058,bq different <term> LM </term> . Actually , the <term> oracle </term> acts like a <term> dynamic combiner
other,14-4-H01-1058,bq <term> hard decisions </term> using the <term> reference </term> . We provide experimental results
measure(ment),18-5-H01-1058,bq combination </term> to improve the <term> performance </term> further . We suggest a method that
other,10-6-H01-1058,bq method that mimics the behavior of the <term> oracle </term> using a <term> neural network </term>
other,13-7-H01-1058,bq measures </term> and picking the best <term> hypothesis </term> corresponding to the <term> LM </term>
model,17-7-H01-1058,bq hypothesis </term> corresponding to the <term> LM </term> with the best <term> confidence </term>
measure(ment),21-7-H01-1058,bq to the <term> LM </term> with the best <term> confidence </term> . We describe a three-tiered approach
hide detail