SensEmo: Enabling Affective Learning through Real-time Emotion Recognition with Smartwatches

Recent research has demonstrated the capability of physiological signals to infer both user emotional and attention responses. This presents an opportunity for leveraging widely available physiological sensors in smartwatches, to detect real-time emotional cues in users, such as stress and excitement. In this paper, we introduce SensEmo, a smartwatch-based system designed for affective learning. SensEmo utilizes multiple physiological sensor data, including heart rate and galvanic skin response, to recognize a student's motivation and concentration levels during class. This recognition is facilitated by a personalized emotion recognition model that predicts emotional states based on degrees of valence and arousal. With real-time emotion and attention feedback from students, we design a Markov decision process-based algorithm to enhance student learning effectiveness and experience by offering suggestions to the teacher regarding teaching content and pacing. We evaluate SensEmo with 22 participants in real-world classroom environments. Evaluation results show that SensEmo recognizes student emotion with an average of 88.9% accuracy. More importantly, SensEmo assists students to achieve better online learning outcomes, e.g., an average of 40.0% higher grades in quizzes, over the traditional learning without student emotional feedback.

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Publication Details

Published
2024-09-23
DOI
https://doi.org/10.1109/mass62177.2024.00066
Citations
6
Primary Topic
IoT-based Smart Home Systems
Type
article
Field-Weighted Citation Impact
1.25

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SensEmo: Enabling Affective Learning through Real-time Emotion Recognition with Smartwatches

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6 citations
IoT-based Smart Home Systems
1.25
article

SensEmo: Enabling Affective Learning through Real-time Emotion Recognition with Smartwatches

Shan Lin, Shahriar Nirjon, Hongkai Chen, Kushan Choksi, Sukrutha Jade, Karan Joshi
article en
6 citations

Abstract

Recent research has demonstrated the capability of physiological signals to infer both user emotional and attention responses. This presents an opportunity for leveraging widely available physiological sensors in smartwatches, to detect real-time emotional cues in users, such as stress and excitement. In this paper, we introduce SensEmo, a smartwatch-based system designed for affective learning. SensEmo utilizes multiple physiological sensor data, including heart rate and galvanic skin response, to recognize a student's motivation and concentration levels during class. This recognition is facilitated by a personalized emotion recognition model that predicts emotional states based on degrees of valence and arousal. With real-time emotion and attention feedback from students, we design a Markov decision process-based algorithm to enhance student learning effectiveness and experience by offering suggestions to the teacher regarding teaching content and pacing. We evaluate SensEmo with 22 participants in real-world classroom environments. Evaluation results show that SensEmo recognizes student emotion with an average of 88.9% accuracy. More importantly, SensEmo assists students to achieve better online learning outcomes, e.g., an average of 40.0% higher grades in quizzes, over the traditional learning without student emotional feedback.

University of North Carolina at Chapel Hill (US), Chinese University of Hong Kong (HK), Stony Brook University (US)
National Science Foundation
Openalex Percentile: Top 20%
IoT-based Smart Home Systems
1.25
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