Lóránd Erőss

The paper isolates human cortical tissue to show that rhythmic synchrony increases while network integration decreases, suggesting local circuits generate gamma activity and long-range inputs support complex dynamics.

This study shows that phase-targeted intersectional short-pulse stimulation reduces seizure duration in both rat models and human patients.

This study tracks functional and structural changes in human cortical slice cultures over weeks, finding stable functional states despite structural degradation.

The paper compares heartbeat-related neural activity in the anterior thalamus during phasic and tonic REM sleep and wakefulness, finding distinct patterns in phasic REM.

The paper introduces the sleep EEG envelope spectrum as a neuronal firing-based biomarker, showing it reflects age and sex with high individual stability.

This study examines thalamic activity during scalp slow waves in humans and finds that thalamic activity is similar to scalp activity, driven by cortical inputs.

The paper investigates the relationship between thalamic sleep spindles, interictal epileptiform discharges (IEDs), and ripples in epilepsy patients, finding associations with epilepsy duration and general intelligence.

The paper examines 1/f aperiodic activity in cortical layers across species, finding steeper slopes and greater magnitudes in superficial layers.

This study investigates the laminar profiles of sleep spindles in humans using EEG and microelectrode recordings, finding no strong association between spindle types and laminar profiles.

This study identifies the cortical and thalamic generators of the human alpha rhythm, showing it originates in higher-order cortex and propagates to lower-order regions and thalamus.

The paper simulates human sleep spindle MEG and EEG by integrating ion channel dynamics and circuit-level neural activity across multiple scales.

This study identifies two distinct patterns of human sleep spindle generation in different cortical layers using microelectrode recordings and factor analysis.

The paper shows that superficial slow rhythms in the human cortex generate EEG activity and integrate cortical processing during wakefulness and sleep.