Design sample

A university lab website design sample by Dicolab. NEURO Lab is fictional — its university, people, projects, papers and posts are not real. Design © Dicolab. Copying or reusing it without permission may lead to legal action. More design samples (Korean)

NEURO Lab — Neural Circuits Lab

We read the night memories settle, one spike at a time

We record hippocampus, thalamus and motor cortex together to find the circuits behind memory, sleep and movement.

Prefrontal cortexMotor cortexHippocampusThalamusCerebellumBrainstem
Spike raster of 48 neurons — illustrative Where those neurons sit — sagittal section

Brain map

Tap a region to see the research done there

← AnteriorPosterior →
  • Memory Circuits
  • Motor Control & BCI
  • Sleep Rhythms

Pick a region

We record from six regions to ask three questions — where memories settle, where movements are prepared, and how sleep sets its rhythm.

PFCMemory Circuits

Prefrontal cortex

Which neural populations hold information in working memory for a few seconds?

Research here

  • Codes that keep working memory stable under distraction
  • Theta timing between hippocampus and PFC at choice

Recent papers

  1. 21Low-dimensional prefrontal codes stabilise working memory under distraction2026
  2. 16Hippocampal–prefrontal coherence during delay predicts recall accuracy2025

All 4 papers on Prefrontal cortex About this topic

M1Motor Control & BCI

Motor cortex

Can reach direction be read from motor-cortex trajectories before the movement starts?

Research here

  • Reach direction readable 300 ms ahead
  • Cursor control that survives electrode drift

Recent papers

  1. 24Preparatory trajectories in motor cortex predict reach direction 300 ms ahead2026
  2. 23A drift-aware decoder for week-long closed-loop cursor control2026

All 8 papers on Motor cortex About this topic

HPCMemory Circuits

Hippocampus

Does place-cell replay during sleep change next-day navigation?

Research here

  • Order of route replay during sleep
  • Theta timing between hippocampus and PFC at choice
  • Spindle–ripple coupling that weakens with age

Recent papers

  1. 25Sharp-wave ripples gate overnight replay of newly learned routes2026
  2. 18Place-cell sequences compress more after novel than familiar runs2025

All 8 papers on Hippocampus About this topic

THSleep Rhythms

Thalamus

Which thalamic rhythm starts sleep spindles and how do they spread to cortex?

Research here

  • Order of route replay during sleep
  • Thalamic rhythms that set spindle frequency
  • The switch into REM sleep
  • Spindle–ripple coupling that weakens with age

Recent papers

  1. 25Sharp-wave ripples gate overnight replay of newly learned routes2026
  2. 22A lightweight convolutional model for automated sleep-spindle detection2026

All 7 papers on Thalamus About this topic

CBMotor Control & BCI

Cerebellum

How do cerebellar error signals correct the next movement?

Research here

  • Cursor control that survives electrode drift
  • Cerebellar error signals after a missed reach

Recent papers

  1. 23A drift-aware decoder for week-long closed-loop cursor control2026
  2. 20Climbing-fibre error signals scale with reach endpoint variance2025

All 5 papers on Cerebellum About this topic

BSSleep Rhythms

Brainstem

Which brainstem populations decide the switch into REM sleep?

Research here

  • The switch into REM sleep

Recent papers

  1. 19Brainstem bursts precede the switch from spindle-rich sleep to REM2025
  2. 15Brainstem population activity just before the onset of REM sleep2025

All 3 papers on Brainstem About this topic

About

We study how the sleeping brain rewrites the day — and how those circuits can restore movement.

Led by Prof. Seoyun Han with 2 postdocs, 8 graduate students and 2 undergraduates.

Latest papers

What we published lately

Checked weekly and approved by the PI. Last checked Oct 26, 2026

All 25 papers
While runningDuring sleep (compressed replay) Illustrative — not real data

Int’l journalHippocampusThalamus

“Sharp-wave ripples gate overnight replay of newly learned routes”

On the night after learning a new route, place-cell sequences replayed in compressed form during ripples; blocking ripples slowed next-day navigation.

Journal of Circuit Neuroscience, 18(4), 211–229, 2026.

  1. 24
    “Preparatory trajectories in motor cortex predict reach direction 300 ms ahead”

    R. Seo, D. Lee, M. Kang, S. Han*

    Neuroengineering Reports, 9(2), 88–104, 2026.

    Int’l journalMotor cortexLINK full textPDF file
  2. 23
    “A drift-aware decoder for week-long closed-loop cursor control”

    D. Lee, R. Seo, S. Han*

    Proc. International Conference on Neural Interfaces (ICNI 2026), pp. 412–417, 2026.

    Int’l conferenceMotor cortexCerebellumLINK full text
  3. 22
    “A lightweight convolutional model for automated sleep-spindle detection”

    H. Jung, T. Moon, S. Han*

    Journal of the Korean Society for Neural Circuits, 12(2), 45–58, 2026. (in Korean)

    Domestic journalThalamusLINK full textPDF file
  4. 21
    “Low-dimensional prefrontal codes stabilise working memory under distraction”

    S. Park, J. Kim, S. Han*

    Brain Rhythm Research, 31(1), 15–33, 2026.

    Int’l journalPrefrontal cortexLINK full text

Looking for labs to record and analyse with

Data sharing, shared equipment or joint grants — write to us first. We usually reply within three days.

neuro@neurolab.exampleLocation