Reprint

Emotion and Stress Recognition Related Sensors and Machine Learning Technologies

Edited by
June 2021
550 pages
  • ISBN978-3-0365-1138-2 (Hardback)
  • ISBN978-3-0365-1139-9 (PDF)

This book is a reprint of the Special Issue Emotion and Stress Recognition Related Sensors and Machine Learning Technologies that was published in

Chemistry & Materials Science
Engineering
Environmental & Earth Sciences
Summary

This book includes impactful chapters which present scientific concepts, frameworks, architectures and ideas on sensing technologies and machine learning techniques. These are relevant in tackling the following challenges: (i) the field readiness and use of intrusive sensor systems and devices for capturing biosignals, including EEG sensor systems, ECG sensor systems and electrodermal activity sensor systems; (ii) the quality assessment and management of sensor data; (iii) data preprocessing, noise filtering and calibration concepts for biosignals; (iv) the field readiness and use of nonintrusive sensor technologies, including visual sensors, acoustic sensors, vibration sensors and piezoelectric sensors; (v) emotion recognition using mobile phones and smartwatches; (vi) body area sensor networks for emotion and stress studies; (vii) the use of experimental datasets in emotion recognition, including dataset generation principles and concepts, quality insurance and emotion elicitation material and concepts; (viii) machine learning techniques for robust emotion recognition, including graphical models, neural network methods, deep learning methods, statistical learning and multivariate empirical mode decomposition; (ix) subject-independent emotion and stress recognition concepts and systems, including facial expression-based systems, speech-based systems, EEG-based systems, ECG-based systems, electrodermal activity-based systems, multimodal recognition systems and sensor fusion concepts and (x) emotion and stress estimation and forecasting from a nonlinear dynamical system perspective.

Format
  • Hardback
License
© 2022 by the authors; CC BY-NC-ND license
Keywords
subject-dependent emotion recognition; subject-independent emotion recognition; electrodermal activity (EDA); deep learning; convolutional neural networks; automatic facial emotion recognition; intensity of emotion recognition; behavioral biometrical systems; machine learning; artificial intelligence; driving stress; electrodermal activity; road traffic; road types; Viola-Jones; facial emotion recognition; facial expression recognition; facial detection; facial landmarks; infrared thermal imaging; homography matrix; socially assistive robot; EEG; arousal detection; valence detection; data transformation; normalization; mental stress detection; electrocardiogram; respiration; machine learning; deep learning; EEG; in-ear EEG; emotion classification; emotion monitoring; elderly caring; outpatient caring; machine learning; stress detection; electrocardiogram; deep neural network; convolutional neural network; wearable sensors; psychophysiology; sensor data analysis; time series analysis; signal analysis; similarity measures; correlation statistics; quantitative analysis; benchmarking; boredom; machine learning; emotion; EEG; GSR; classification; sensor; face landmark detection; fully convolutional DenseNets; skip-connections; dilated convolutions; emotion recognition; physiological sensing; multimodal sensing; deep learning; flight simulation; activity recognition; physiological signals; electrocardiogram; thoracic electrical bioimpedance; electrodermal activity; smart band; stress recognition; physiological signal processing; machine learning; convolutional neural networks; long short-term memory recurrent neural networks; information fusion; pain recognition; long-term stress; electroencephalography; machine learning; perceived stress scale; expert evaluation; affective corpus; multimodal sensors; overload; underload; interest; frustration; cognitive load; emotion recognition; stress research; affective computing; machine learning; human-computer interaction; facial expression recognition; deep convolutional neural network; transfer learning; auxiliary loss; weighted loss; class center; stress sensing; smart insoles; smart shoes; unobtrusive sensing; stress; center of pressure; stress detection; wearable sensors; regression; classification; emotion recognition; physiological signals; machine learning; signal processing; arousal; aging adults; musical genres; electrodermal activity; emotion recognition; emotion elicitation; dataset; emotion representation; feature selection; feature extraction; classification; computer science; artificial intelligence; affective computing; affective computing; emotion recognition; emotion elicitation; virtual reality; head-mounted display; machine learning; transfer learning; convolutional neural networks; emotion recognition; n/a