Predicting dialogue success, naturalness,
and length with acoustic features
and length with acoustic features
File(s)Predicting Dialogue Success.pdf (246.87 KB)
Accepted version
Author(s)
Papangelis, A
Kotti, M
Stylianoy, Y
Type
Conference Paper
Abstract
Statistical methods for Spoken Dialogue Systems have been shown
to reduce the cost of development, while successfully handling a
variety of applications. However, such systems are usually trained
with simulated users or paid subjects in controlled settings. While
this may be sufficient to jump-start learning in the various sub-
components, learning is very much dependent on the complete
knowledge that we have about the interaction. Relatively few works
have focused on this problem, and we here propose to extract low-
level audio descriptors and use them as input to various classifiers,
namely support vector machines, Gaussian process regressors, and
random forests, to predict metrics that are constituents of user sat-
isfaction from acoustic features. While our approach is not directly
comparable to the current state of the art, results show that models
using the proposed feature set outperform models that use state of
the art features extracted from the belief state.
to reduce the cost of development, while successfully handling a
variety of applications. However, such systems are usually trained
with simulated users or paid subjects in controlled settings. While
this may be sufficient to jump-start learning in the various sub-
components, learning is very much dependent on the complete
knowledge that we have about the interaction. Relatively few works
have focused on this problem, and we here propose to extract low-
level audio descriptors and use them as input to various classifiers,
namely support vector machines, Gaussian process regressors, and
random forests, to predict metrics that are constituents of user sat-
isfaction from acoustic features. While our approach is not directly
comparable to the current state of the art, results show that models
using the proposed feature set outperform models that use state of
the art features extracted from the belief state.
Date Issued
2017-06-19
Date Acceptance
2016-12-12
Citation
2017
Publisher
IEEE
Copyright Statement
© 2017 IEEE. Personal use of this material is permitted. Permission from IEEE must be obtained for all other uses, in any current or future media, including reprinting/republishing this material for advertising or promotional purposes, creating new collective works, for resale or redistribution to servers or lists, or reuse of any copyrighted component of this work in other works.
Source
ICASSP 2017
Publication Status
Published
Start Date
2017-03-05
Finish Date
2017-03-09
Coverage Spatial
New Orleans, USA