tech,11-5-H01-1058,bq show the need for a <term> dynamic language model combination </term> to improve the <term> performance
model,12-3-N03-1001,bq first used to train a <term> phone n-gram model </term> for a particular <term> domain </term>
model,26-3-N03-1001,bq of <term> recognition </term> with this <term> model </term> is then passed to a <term> phone-string
model,4-1-N03-1017,bq propose a new <term> phrase-based translation model </term> and <term> decoding algorithm </term>
model,7-1-N03-1018,bq probabilistic optical character recognition ( OCR ) model </term> that describes an end-to-end process
model,1-2-N03-1018,bq </term> of an <term> OCR system </term> . The <term> model </term> is designed for use in <term> error
model,6-3-N03-1018,bq We present an implementation of the <term> model </term> based on <term> finite-state models
model,14-3-N03-1018,bq finite-state models </term> , demonstrate the <term> model </term> 's ability to significantly reduce
model,23-2-N03-1026,bq forests </term> , and a <term> maximum-entropy model </term> for <term> stochastic output selection
model,28-1-N03-2006,bq </term> and , in addition , the <term> language model </term> of an in-domain <term> monolingual
model,27-3-N03-2006,bq the possibility of using the <term> language model </term> . We describe a simple <term> unsupervised
model,7-1-N03-2036,bq we describe a <term> phrase-based unigram model </term> for <term> statistical machine translation
other,21-1-N03-2036,bq </term> that uses a much simpler set of <term> model parameters </term> than similar <term> phrase-based
model,6-3-N03-2036,bq decoding </term> , we use a <term> block unigram model </term> and a <term> word-based trigram language
model,11-3-N03-2036,bq </term> and a <term> word-based trigram language model </term> . During <term> training </term> , the
model,16-2-P03-1033,bq kinds of <term> users </term> , the <term> user model </term> we propose is more comprehensive
model,1-2-P03-1050,bq Arabic ) stemmer </term> . The <term> stemming model </term> is based on <term> statistical machine
model,8-1-P03-1051,bq Arabic 's rich morphology </term> by a <term> model </term> that a <term> word </term> consists of
model,4-3-P03-1051,bq algorithm </term> uses a <term> trigram language model </term> to determine the most probable <term>
model,1-4-P03-1051,bq given <term> input </term> . The <term> language model </term> is initially estimated from a small
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