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Read the network.
Change its dynamics.

We combine large-scale electrophysiology, targeted interventions and engineering to investigate healthy and pathological brain activity.

Neural dynamics

How networks organize information

Our research explores the coordinated activity of neurons and circuits, including oscillations, hippocampal network dynamics, memory and sensory processing. Recording across multiple sites lets us ask how local activity relates to the behaviour of the larger network.

We combine high-density extracellular recording with quantitative analysis to link neural activity across scales.

Published experimental methods and electrophysiological traces from Takeuchi et al., Brain (2021).
Published experimental methods and electrophysiological traces from Takeuchi et al., Brain (2021).
Closed-loop neuromodulation

Timing is part of the intervention

Closed-loop approaches use ongoing neural activity to guide stimulation. We investigate interventions that interact with pathological rhythms, with particular interest in epilepsy and the modulation of circuits relevant to neuropsychiatric conditions.

Our published work includes seizure-rhythm driven medial septal stimulation in rats, phase-targeted stimulation during fear extinction in male rats, and the reinstatement of limbic gamma oscillations in rodent models.

Comparison of stimulation timing approaches. Takeuchi et al., Brain (2021).
Comparison of stimulation timing approaches. Takeuchi et al., Brain (2021).
Neurotechnology & translation

New tools open new questions

We develop approaches for recording neural activity and delivering spatially and temporally targeted stimulation. Our methods include EEG, high-density silicon-probe recordings, optogenetics, intersectional short-pulse stimulation (ISP) and neural data analysis.

The goal is to connect mechanistic questions in experimental models with the challenges of therapeutic translation. Experimental and clinical studies require distinct interpretation; preclinical findings do not establish clinical efficacy.

256-site silicon probe and recording headstage

256-channel silicon probes

Large-scale recording with multiplexed headstages.

Berényi et al., 2014 ↗
ISP electrode timing sequence and intracellular membrane response

ISP stimulation

Rapidly interleaved pulses and neuronal integration.

Földi et al., 2026 ↗
Published schematic of closed-loop optogenetic stimulation of septal GABAergic neurons

Optogenetics

Cell-type-specific perturbation with feedback control.

Takeuchi et al., 2021 ↗
EEG-derived source reconstructions compared with an intracranial reference

EEG & source timing

Recovering the timing of activity from surface recordings.

Furuglyás et al., 2026 · preprint ↗
Actual and decoded position using spikes, local field potentials and joint decoding

Neural data analysis

Decoding position from spikes and LFPs in a 64-electrode recording.

Agarwal et al., 2014 ↗

Examples of recording, stimulation and analysis methods from our research. Source panels retain their original data and colours.

Explore the ISP patent · US11452862B2 ↗

Open to collaboration.

We welcome exchanges of ideas, methods and expertise. Please contact us about a specific dataset, analysis tool, research visit or shared project.

Browse the publication archive ↗
05 / CONTACT

Good science starts
with a conversation.

Department of Physiology · University of Szeged
Dóm tér 10, H-6720 Szeged, Hungary
+36 62 545 373

Find us in Szeged ↗