Fast fMRI enables the detection of neural dynamics over timescales of hundreds of
milliseconds, suggesting it may provide a new avenue for studying subsecond neural …

Recent studies have demonstrated that fast fMRI can track neural activity well above the
temporal limit predicted by the canonical hemodynamic response model. While these …

Oscillatory neural dynamics play an important role in the coordination of large-scale brain
networks. High-level cognitive processes depend on dynamics evolving over hundreds of …

Recent developments in fMRI acquisition techniques now enable fast sampling with whole-
brain coverage, suggesting fMRI can be used to track changes in neural activity at …

The interpretation of functional magnetic resonance imaging (fMRI) studies based on blood
oxygen-level dependent (BOLD) contrast generally relies on the assumption of a linear …

Recent improvements in the speed and sensitivity of fMRI acquisition techniques suggest
that fast fMRI can be used to detect and precisely localize sub-second neural dynamics. This …

Cortical activity is organized across multiple spatial and temporal scales. Most research on
the dynamics of neuronal spiking is concerned with timescales of 1 ms–1 s, and little is …

Over the past 20years much attention has been given to characterizing the spatial accuracy
of fMRI based signals and to techniques that improve on its co-localization with neuronal …

Functional magnetic resonance imaging (fMRI) is an emerging methodology which provides
various approaches to visualizing regional brain activity non-invasively. Although the exact …

An understanding of the relationship between changes in neural activity and the
accompanying hemodynamic response is crucial for accurate interpretation of functional …