Automatic Recognition of Element Classes and Boundaries in the Birdsong with Variable Sequences

Researches on sequential vocalization often require analysis of vocalizations in long continuous sounds. In such studies as developmental ones or studies across generations in which days or months of vocalizations must be analyzed, methods for automatic recognition would be strongly desired. Althoug...

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Veröffentlicht in:PloS one 2016-07, Vol.11 (7), p.e0159188-e0159188
Hauptverfasser: Koumura, Takuya, Okanoya, Kazuo
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Okanoya, Kazuo
description Researches on sequential vocalization often require analysis of vocalizations in long continuous sounds. In such studies as developmental ones or studies across generations in which days or months of vocalizations must be analyzed, methods for automatic recognition would be strongly desired. Although methods for automatic speech recognition for application purposes have been intensively studied, blindly applying them for biological purposes may not be an optimal solution. This is because, unlike human speech recognition, analysis of sequential vocalizations often requires accurate extraction of timing information. In the present study we propose automated systems suitable for recognizing birdsong, one of the most intensively investigated sequential vocalizations, focusing on the three properties of the birdsong. First, a song is a sequence of vocal elements, called notes, which can be grouped into categories. Second, temporal structure of birdsong is precisely controlled, meaning that temporal information is important in song analysis. Finally, notes are produced according to certain probabilistic rules, which may facilitate the accurate song recognition. We divided the procedure of song recognition into three sub-steps: local classification, boundary detection, and global sequencing, each of which corresponds to each of the three properties of birdsong. We compared the performances of several different ways to arrange these three steps. As results, we demonstrated a hybrid model of a deep convolutional neural network and a hidden Markov model was effective. We propose suitable arrangements of methods according to whether accurate boundary detection is needed. Also we designed the new measure to jointly evaluate the accuracy of note classification and boundary detection. Our methods should be applicable, with small modification and tuning, to the songs in other species that hold the three properties of the sequential vocalization.
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subjects Acoustics
Analysis
Animal vocalizations
Animals
Artificial intelligence
Artificial neural networks
Auditory Threshold - physiology
Automatic speech recognition
Automation
Biology and Life Sciences
Bird songs
Birds
Boundaries
Boundary element method
Classification
Computer and Information Sciences
Finches - physiology
Life sciences
Markov analysis
Markov Chains
Markov processes
Neural networks
Neural Networks, Computer
Pattern recognition
Pattern Recognition, Physiological
Physical sciences
Properties (attributes)
Reproducibility of Results
Semantics
Sequences
Social Sciences
Song
Songs
Speech
Speech recognition
Studies
Syntax
Time Factors
Vocalization
Vocalization, Animal - physiology
Voice recognition
title Automatic Recognition of Element Classes and Boundaries in the Birdsong with Variable Sequences
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