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arXiv · 1912.07416

Improved Explanatory Efficacy on Human Affect and Workload through Interactive Process in Artificial Intelligence

Byung Hyung Kim·Seunghun Koh·Sejoon Huh·Sungho Jo·Sunghee Choi
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Abstract

Despite recent advances in the field of explainable artificial intelligence systems, a concrete quantitative measure for evaluating the usability of such systems is nonexistent. Ensuring the success of an explanatory interface in interacting with users requires a cyclic, symbiotic relationship between human and artificial intelligence. We, therefore, propose explanatory efficacy, a novel metric for evaluating the strength of the cyclic relationship the interface exhibits. Furthermore, in a user study, we evaluated the perceived affect and workload and recorded the EEG signals of our participants as they interacted with our custom-built, iterative explanatory interface to build personalized recommendation systems. We found that systems for perceptually driven iterative tasks with greater explanatory efficacy are characterized by statistically significant hemispheric differences in neural signals with 62.4% accuracy, indicating the feasibility of neural correlates as a measure of explanatory efficacy. These findings are beneficial for researchers who aim to study the circular ecosystem of the human-artificial intelligence partnership.

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Byung Hyung Kim, Seunghun Koh, Sejoon Huh, Sungho Jo, Sunghee Choi. 2019-12-13. Improved Explanatory Efficacy on Human Affect and Workload through Interactive Process in Artificial Intelligence. https://doi.org/10.1109/access.2020.3032056

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