Analysis and Tuning of a Voice Assistant System for Dysfluent Speech

被引:6
|
作者
Mitra, Vikramjit [1 ]
Huang, Zifang [1 ]
Lea, Colin [1 ]
Tooley, Lauren [1 ]
Wu, Sarah [1 ]
Botten, Darren [1 ]
Palekar, Ashwini [1 ]
Thelapurath, Shrinath [1 ]
Georgiou, Panayiotis [1 ]
Kajarekar, Sachin [1 ]
Bigham, Jefferey [1 ]
机构
[1] Apple, Cupertino, CA 95014 USA
来源
关键词
dysfluent speech recognition; stutter detection; domain recognition; intent recognition; dysfluencies;
D O I
10.21437/Interspeech.2021-2006
中图分类号
R36 [病理学]; R76 [耳鼻咽喉科学];
学科分类号
100104 ; 100213 ;
摘要
Dysfluencies and variations in speech pronunciation can severely degrade speech recognition performance, and for many individuals with moderate-to-severe speech disorders, voice operated systems do not work. Current speech recognition systems are trained primarily with data from fluent speakers and as a consequence do not generalize well to speech with dysfluencies such as sound or word repetitions, sound prolongations, or audible blocks. The focus of this work is on quantitative analysis of a consumer speech recognition system on individuals who stutter and production-oriented approaches for improving performance for common voice assistant tasks (i.e., "what is the weather?"). At baseline, this system introduces a significant number of insertion and substitution errors resulting in intended speech Word Error Rates (isWER) that are 13.64% worse (absolute) for individuals with fluency disorders. We show that by simply tuning the decoding parameters in an existing hybrid speech recognition system one can improve isWER by 24% (relative) for individuals with fluency disorders. Tuning these parameters translates to 3.6% better domain recognition and 1.7% better intent recognition relative to the default setup for the 18 study participants across all stuttering severities.
引用
收藏
页码:4848 / 4852
页数:5
相关论文
共 50 条
  • [21] Inventory and Attendance Management System for Construction Firm with Voice Assistant
    Joshi, Jitendra
    Bhirud, Digvijay
    Shinde, Ganesh
    Avhale, Vaishali
    Vispute, S.R.
    Rajeswari, K.
    2022 6th International Conference on Computing, Communication, Control and Automation, ICCUBEA 2022, 2022,
  • [22] INTEGRATION OF A CGM SYSTEM AND A VOICE-CONTROLLED VIRTUAL ASSISTANT
    Acciaroli, G.
    Welsh, J.
    Parker, A. S.
    DIABETES TECHNOLOGY & THERAPEUTICS, 2021, 23 : A41 - A41
  • [23] Speech motor control in fluent and dysfluent speech production of an individual with apraxia of speech and Broca's aphasia
    Van Lieshout, Pascal. H. H. M.
    Bose, Arpita
    Square, Paula A.
    Steele, Catriona M.
    CLINICAL LINGUISTICS & PHONETICS, 2007, 21 (03) : 159 - 188
  • [24] ANALYSIS OF PERIODIC AND APERIODIC COMPONENTS DURING FLUENT AND DYSFLUENT PHASES OF CHILD AND ADULT STUTTERERS SPEECH
    HOWELL, P
    YOUNG, K
    PHONETICA, 1990, 47 (3-4) : 238 - 243
  • [25] The analysis of voice quality in speech processing
    Keller, E
    NONLINEAR SPEECH MODELING AND APPLICATIONS, 2005, 3445 : 54 - 73
  • [27] SPEECH CHARACTERISTICS OF FLUENT AND DYSFLUENT DOWNS-SYNDROME ADULTS
    FARMER, A
    BRAYTON, ER
    FOLIA PHONIATRICA, 1979, 31 (04): : 284 - 290
  • [28] Pre-vocalization electrical potentials and quantitative EEG analysis of dysfluent and fluent speech in stutterers and controls
    Braun, CMJ
    Achim, A
    Collin, I
    INTERNATIONAL JOURNAL OF PSYCHOPHYSIOLOGY, 2004, 54 (1-2) : 75 - 75
  • [29] LANGUAGE DISABILITY AND DYSFLUENT SPEECH IN ELEMENTARY-SCHOOL-CHILDREN
    LYBOLT, JT
    FOLIA PHONIATRICA, 1986, 38 (5-6): : 326 - 327
  • [30] Dramatic effects of speech task on motor and linguistic planning in severely dysfluent parkinsonian speech
    Sidtis, Diana Van Lancker
    Cameron, Krista
    Sidtis, John J.
    CLINICAL LINGUISTICS & PHONETICS, 2012, 26 (08) : 695 - 711