Chill-Pass: Using Neuro-Physiological Responses to Chill Music to Defeat Coercion Attacks
Max Wolotsky, Mohammad Husain, Elisha Choe

TL;DR
This paper proposes a novel coercion-resistant authentication system using neuro-physiological responses to Chill music, which can detect stress and ensure non-transferability, validated with over 90% accuracy in human trials.
Contribution
It introduces a new CRAS method leveraging neuro-physiological responses to Chill music, combining stress detection and non-transferability for enhanced security.
Findings
Successfully authenticated 100 subjects with over 90% accuracy.
Chill music elicits unique neuro-physiological responses suitable for authentication.
Demonstrated feasibility of using neuro responses to prevent coercion in authentication.
Abstract
Current alphanumeric and biometric authentication systems cannot withstand situations where a user is coerced into releasing their authentication materials under hostile circumstances. Existing approaches of coercion resistant authentication systems (CRAS) propose authentication factors such as implicit learning tasks, which are non-transferable, but still have the drawback that an attacker can force the victim (causing stress) to perform the task in order to gain unauthorized access. Alternatively, there could be cases where the user could claim that they were coerced into giving up the authentication materials, whereas in reality they acted as an insider attacker. Therefore, being able to detect stress during authentication also helps to achieve non-repudiation in such cases. To address these concerns, we need CRAS that have both the non-transferable property as well as a mechanism to…
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Taxonomy
TopicsEmotion and Mood Recognition · EEG and Brain-Computer Interfaces · Neural dynamics and brain function
