Fessonia: a Method for Real-Time Estimation of Human Operator Workload Using Behavioural Entropy
Paraskevas Chatzithanos, Grigoris Nikolaou, Rustam Stolkin, Manolis, Chiou

TL;DR
Fessonia is a real-time method that estimates human operator workload during robot control by analyzing driving behaviour entropy, enabling adaptive assistance and improved safety in human-robot interaction.
Contribution
The paper introduces Fessonia, a novel real-time cognitive workload estimation method using behavioural entropy and adaptive algorithms for operator profile updates.
Findings
Fessonia accurately estimates different workload levels.
The approach adapts to individual operator profiles.
Workload decreases when warnings are issued.
Abstract
This paper addresses the problem of the human operator cognitive workload estimation while controlling a robot. Being capable of assessing, in real-time, the operator's workload could help prevent calamitous events from occurring. This workload estimation could enable an AI to make informed decisions to assist or advise the operator, in an advanced human-robot interaction framework. We propose a method, named Fessonia, for real-time cognitive workload estimation from multiple parameters of an operator's driving behaviour via the use of behavioural entropy. Fessonia is comprised of: a method to calculate the entropy (i.e. unpredictability) of the operator driving behaviour profile; the Driver Profile Update algorithm which adapts the entropy calculations to the evolving driving profile of individual operators; and a Warning And Indication System that uses workload estimations to issue…
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Taxonomy
TopicsHuman-Automation Interaction and Safety · Occupational Health and Safety Research · Maritime Navigation and Safety
