Visual Contrast Sensitivity Improvement by Right Frontal High-Beta Activity Is Mediated by Contrast Gain Mechanisms and Influenced by Fronto-Parietal White Matter Microstructure.

By Romain Quentin, Seth Elkin Frankston, M. Vernet, M. Toba, Paolo Bartolomeo, L. Chanes, Antoni Valero-Cabré. 2016

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Causal Evidence for the Role of Neuronal Oscillations in Top-Down and Bottom-Up Attention (2019, unknown): “, 2011), making it a powerful approach to causally manipulate and dissociate the specific roles of neuronal oscillations in different frequency bands (Quentin et al., 2016; Chanes, Quentin, Tallon-Baudry, & Valero-Cabré, 2013; Romei, Driver, Schyns, & Thut, 2011; Romei, Gross, & Thut, 2010).”
A guide for concurrent TMS-fMRI to investigate functional brain networks (2022, methodology): “(Bohning et al., 1999; Bestmann et al., 2008b; Quentin et al., 2016) for caudate using the MarsBaR toolbox (Brett et al.”
Rhythmic beta-frequency TMS over human right parietal cortex strengthens visual size illusions (2025, unknown): “…delivered over the right frontal eye field induces an increase of beta synchronization between this frontal area and ipsilateral parietal cortex and improves visual sensitivity of a low-contrast stimulus (Chanes et al., 2013; Quentin et al., 2015, 2016; Stengel et al., 2021; Vernet et al., 2019).”
Network-Targeted, Multi-site Direct Cortical Stimulation Enhances Working Memory by Modulating Phase Lag of Low-Frequency Oscillations (2019, methodology): “Further 253 studies incorporating arrhythmic stimulation as used in some TMS studies can be used to establish the 254 frequency specificity of stimulation effects [40, 71].”