Communications of the ACM
The Dissimilarity Representation for Pattern Recognition: Foundations And Applications (Machine Perception and Artificial Intelligence)
True Visions: The Emergence of Ambient Intelligence (Frontiers Collection)
True Visions: The Emergence of Ambient Intelligence (Frontiers Collection)
The Disappearing Computer: Interaction Design, System Infrastructures and Applications for Smart Environments (Lecture Notes in Computer Science)
Development of a biosignals framework for usability analysis
Proceedings of the 2009 ACM symposium on Applied Computing
Reading detection based on electroencephalogram processing
ICCOMP'09 Proceedings of the WSEAES 13th international conference on Computers
Ubiquitous Computing Fundamentals
Ubiquitous Computing Fundamentals
Ubiquitous Computing Fundamentals
Ubiquitous Computing Fundamentals
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This paper studies the discrimination of electroencephalographic (EEG) signals based in their capacity to identify silent attentive visual reading activities versus non reading states. The use of physiological signals is growing in the design of interactive systems due to their relevance in the improvement of the coupling between user states and application behavior. Reading is pervasive in visual user interfaces. In previous work, we integrated EEG signals in prototypical applications, designed to analyze reading tasks. This work searches for signals that are most relevant for reading detection procedures. More specifically, this study determines which features, input signals, and frequency bands are more significant for discrimination between reading and non-reading classes. This optimization is critical for an efficient and real time implementation of EEG processing software components, a basic requirement for the future applications. We use probabilistic similarity metrics, independent of the classification algorithm. All analyses are performed after determining the power spectrum density of delta, theta, alpha, beta and gamma rhythms. The results about the relevance of the input signals are validated with functional neurosciences knowledge. The experiences have been performed in a conventional HCI lab, with non clinical EEG equipment and setup. This is an explicit and voluntary condition. We anticipate that future mobile and wireless EEG capture devices will allow this work to be generalized to common applications.