Rolinson Begazo
Current Organizations / Institutes
The organizations/institutes from the scholar's latest article
Rolinson Begazo has a total of 5 co-authors. Here are the top co-authors by number of shared publications:
- Ana Aguilera
Universidad de Valparaíso
3 shared publications - Irvin Dongo
Electrical and Electronics Engineering Department, Universidad Católica San Pablo, Arequipa, Peru
3 shared publications - Yudith Cardinale
Centro de Estudios en Ciencia de Datos e IA (ESenCIA), Universidad Internacional de Valencia, 46002 Valencia, Spain
3 shared publications - José García
Electrical and Electronics Engineering Department, Universidad Católica San Pablo, Arequipa, Peru
2 shared publications - Pedro Cárdenas
Electrical and Electronics Engineering Department, Universidad Católica San Pablo, Arequipa, Peru
2 shared publications
Latest Publications
- 20 October 2025
- Published by Springer Nature in International Journal of Social Robotics
- Vol. 17 (12) , 3115-3134
Emotion Recognition in Multi-speaker Scenarios for Social Robots
- 20 October 2025
- Published by Springer Nature in International Journal of Social Robotics
- Vol. 17 (12) , 3115-3134
Emotion Recognition in Multi-speaker Scenarios for Social Robots
- 30 September 2024
- Published by Springer Nature in International Journal of Social Robotics
- Vol. 16 (9-10) , 2019-2041
Evaluation of Robot Emotion Expressions for Human–Robot Interaction
- 30 September 2024
- Published by Springer Nature in International Journal of Social Robotics
- Vol. 16 (9-10) , 2019-2041
Evaluation of Robot Emotion Expressions for Human–Robot Interaction
- Open Access
A Combined CNN Architecture for Speech Emotion Recognition
Emotion recognition through speech is a technique employed in various scenarios of Human–Computer Interaction (HCI). Existing approaches have achieved significant results; however, limitations persist, with the quantity and diversity of data being more notable when deep learning techniques are used. The lack of a standard in feature selection leads to continuous development and experimentation. Choosing and designing the appropriate network architecture constitutes another challenge. This study addresses the challenge of recognizing emotions in the human voice using deep learning techniques, proposing a comprehensive approach, and developing preprocessing and feature selection stages while constructing a dataset called EmoDSc as a result of combining several available databases. The synergy between spectral features and spectrogram images is investigated. Independently, the weighted accuracy obtained using only spectral features was 89%, while using only spectrogram images, the weighted accuracy reached 90%. These results, although surpassing previous research, highlight the strengths and limitations when operating in isolation. Based on this exploration, a neural network architecture composed of a CNN1D, a CNN2D, and an MLP that fuses spectral features and spectogram images is proposed. The model, supported by the unified dataset EmoDSc, demonstrates a remarkable accuracy of 96%.
Open AccessA Combined CNN Architecture for Speech Emotion Recognition
Emotion recognition through speech is a technique employed in various scenarios of Human–Computer Interaction (HCI). Existing approaches have achieved significant results; however, limitations persist, with the quantity and diversity of data being more notable when deep learning techniques are used. The lack of a standard in feature selection leads to continuous development and experimentation. Choosing and designing the appropriate network architecture constitutes another challenge. This study addresses the challenge of recognizing emotions in the human voice using deep learning techniques, proposing a comprehensive approach, and developing preprocessing and feature selection stages while constructing a dataset called EmoDSc as a result of combining several available databases. The synergy between spectral features and spectrogram images is investigated. Independently, the weighted accuracy obtained using only spectral features was 89%, while using only spectrogram images, the weighted accuracy reached 90%. These results, although surpassing previous research, highlight the strengths and limitations when operating in isolation. Based on this exploration, a neural network architecture composed of a CNN1D, a CNN2D, and an MLP that fuses spectral features and spectogram images is proposed. The model, supported by the unified dataset EmoDSc, demonstrates a remarkable accuracy of 96%.