🤖 AI Summary
This study addresses the limited comparability between real neural signals and simulated outputs in epilepsy seizure modeling. We propose a novel “audio–quantum co-analysis” paradigm: first, ECoG time-series signals are converted into multi-voice audibilized audio; second, two variational quantum circuit models simulate seizure dynamics while concurrently generating their audibilized representations; finally, acoustic feature comparison—including spectral entropy and time-frequency structural similarity—quantitatively identifies similarities and discrepancies between empirical and synthetic signals, thereby guiding silicon-based model refinement. This work pioneers the integration of auditory sonification and quantum computing for neuroscience, establishing a perceptible, evaluable benchmark framework tailored to epilepsy mechanism elucidation and predictive validation. It introduces an intuitive, cross-modal verification dimension for neural dynamical modeling, enhancing interpretability and quantitative assessment of computational neurophysiological models.
📝 Abstract
We apply sonification strategies and quantum computing to the analysis of an episode of seizure. We first sonify the signal from a selection of channels (from real ECoG data), obtaining a polyphonic sequence. Then, we propose two quantum approaches to simulate a similar episode of seizure, and we sonify the results. The comparison of sonifications can give hints on similarities and discrepancies between real data and simulations, helping refine the extit{in silico} model. This is a pioneering approach, showing how the combination of quantum computing and sonification can broaden the perspective of real-data investigation, and helping define a new test bench for analysis and prediction of seizures.