基于最大后验语义解码的语音理解与翻译

J. Müller , H. Stahl
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引用次数: 5

摘要

本文描述了一个用于语音理解和语音翻译的有限域系统。集成语义解码器通过最大后验分类将预处理后的语音信号直接转换为其语义表示。语义解码器结合声学、语音、句法和语义层面的概率知识,提取话语最可能的意义。由于集成了viterbi算法(通过使用隐马尔可夫模型计算声学概率)和概率图解析器(通过特殊模型计算语义和句法概率),因此不需要单独的语音识别阶段。语义结构是话语意义的表征。它可以用作后续意图解码器的中间级别(在语音理解系统中,通过语音输入控制正在运行的应用程序),也可以用作后续语言产生单元的中间级别(在自动语音翻译系统中,用于创建另一种语言的语音输出)。遵循上述原则并使用相应的算法,可以成功实现“图形编辑器”、“服务机器人”、“医学图像可视化”和“调度对话”领域的语音理解和语音翻译前端。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Speech understanding and speech translation by maximum a-posteriori semantic decoding

This paper describes a domain-limited system for speech understanding as well as for speech translation. An integrated semantic decoder directly converts the preprocessed speech signal into its semantic representation by a maximum a-posteriori classification. With the combination of probabilistic knowledge on acoustic, phonetic, syntactic, and semantic levels, the semantic decoder extracts the most probable meaning of the utterance. No separate speech recognition stage is needed because of the integration of the Viterbi-algorithm (calculating acoustic probabilities by the use of Hidden-Markov-Models) and a probabilistic chart parser (calculating semantic and syntactic probabilities by special models). The semantic structure is introduced as a representation of an utterance's meaning. It can be used as an intermediate level for a succeeding intention decoder (within a speech understanding system for the control of a running application by spoken inputs) as well as an interlingua-level for a succeeding language production unit (within an automatic speech translation system for the creation of spoken output in another language). Following the above principles and using the respective algorithms, speech understanding and speech translating front-ends for the domains ‘graphic editor’, ‘service robot’, ‘medical image visualisation’ and ‘scheduling dialogues’ could be successfully realised.

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