Artifacts Are Not Noise: Embodied Resonance and the 70% Signal Loss in Conventional EEG
Ahmed Gamal Eldin

TL;DR
This study demonstrates that conventional EEG artifact rejection discards 70% of cognitive signals, challenging the standard neural noise model and emphasizing the importance of embodied phase synchronization for understanding cognition.
Contribution
It introduces a new EEG metric based on phase synchronization that reveals the significance of embodied resonance in cognition, falsifying the noise-based neural model.
Findings
Removing artifacts reduces signal correlation by 70%.
Cognition involves whole-body phase synchronization, not isolated neural activity.
Standard artifact rejection methods discard critical cognitive signals.
Abstract
Current AI systems excel at pattern recognition but fail at causal reasoning. We argue this is not an engineering limitation but reveals something fundamental about the nature of understanding itself. We propose that causal cognition requires a specific physical architecture: stochastic, coupled oscillators with whole-system coordination. To test this, we analyzed high-density EEG (64 channels, 10 subjects, 500 plus trials) from a P300 target recognition task. We computed the Kuramoto Order Parameter (R) to measure global phase synchronization and compared it to standard voltage (ERP) and coherence (ITC) metrics. Four findings establish the framework. Phase and voltage are globally independent (r of 0.048) yet strongly trial-coupled (r of 0.590), proving R captures hidden cognitive structure. Voltage precedes phase by 293 ms, revealing sequential computation. Frequency decomposition…
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Taxonomy
TopicsAction Observation and Synchronization · Neural dynamics and brain function · Motor Control and Adaptation
