Mihály Vöröslakos

This paper proposes a disinhibition-based model of CA1 place field sequences, showing that disinhibition sharpens place fields and enables flexible sequential activity without recurrent excitation.

The paper identifies communication subspaces in the hippocampal-retrosplenial circuit using partial canonical correlation analysis, showing how these subspaces reconfigure to support flexible encoding of experiences.

The paper shows that hippocampal sharp wave-ripple clusters enhance network segregation and replay of spatial trajectories during memory consolidation.

This study identifies spatiotemporal patterns distinguishing hippocampal sharp-wave ripples from interictal epileptiform discharges in mice and humans, introducing a detection tool for improved analysis.

This study shows that repeated anodal tDCS at 2 V/m during motor training in rats improves motor learning, especially in right-pawed animals, without affecting MEPs.

The paper introduces ThermoMaze, a behavioral paradigm that enables the study of brain activity during immobility by leveraging mice's warmth-seeking behavior and combines it with electrophysiology.

The paper investigates bidirectional interactions between hippocampal sharp wave ripples and neocortical slow oscillations during sleep using electrophysiology and imaging in mice.

This paper develops a dual-color micro-LED neural interface for optogenetic electrophysiology, enabling bidirectional control and recording in vivo.

This paper introduces self-assembled origami neural probes that enable scalable, multifunctional, and 3D neural interfaces with integrated sensors and optogenetic capabilities.

This study shows that clinically relevant electric fields modulate neuronal firing rates in rats, with excitatory neurons showing polarity-specific responses.

This study examines how brain implants in rodents amplify radiofrequency fields, causing neuronal firing and temperature increases without heat injury, highlighting safety concerns and potential neurostimulation applications.

This paper introduces a high-channel-count optogenetic system for deep-brain studies, achieving high spatial resolution in recording and stimulation with unprecedented channel density.

This paper describes a protocol for simultaneously perturbing and recording neural activity in chronically implanted rodents using LED silicon probes.

This study shows that brain temperature in the hippocampal CA1 region influences ripple frequency but not other SPW-R parameters.

The paper introduces a recoverable and reusable microdrive and head cap system for silicon probe recovery in freely moving rodents, reducing cost and experimental complexity.