Ben Lonnqvist

Head of NeuroAI · Read/Write Labs

I build AI models of the brain precise enough to predict and create therapies, with the long-term goal of curing brain dysfunctions.

Portrait of Ben Lonnqvist

I'm Head of NeuroAI at Read/Write Labs (formerly Dandelion Science), where we use computational models of the brain to develop targeted therapies for brain disorders. I architect the company's generative neuromodulation platform.

I did my PhD in Computational Neuroscience at EPFL (2020–2025), advised by Michael Herzog and Martin Schrimpf. My thesis, Differences in Visual Perception in Humans and Deep Neural Networks, combined psychophysics, neural data and model-building. I'm also a core contributor to the open-source Brain-Score platform. Before that I studied Economics and Finance at the University of Aberdeen.

humans vs. AI

NeuroAI benchmarking

Large-scale tests of AI models against human behaviour and the brain, to find exactly where today's models stop seeing like we do. Over a thousand models compared.

7 papers →

Visual Grouping

Grouping & segmentation

How the visual system binds fragments into objects. Latent Noise Segmentation shows that neural noise alone can drive unsupervised segmentation.

3 papers →

model → stimulation

Neurotechnology & prosthetics

Using brain models to decide where and how to stimulate, from model-guided microstimulation in primates to better prosthetic vision.

2 papers →
All publications →
2026

Model-Guided Microstimulation Steers Primate Visual Behavior

Mehrer J, Lonnqvist B, Mitola A, Papale P, Schrimpf M

International Conference on Learning Representations

paper arxiv 
ICLR
2025

Contour Integration Underlies Human-Like Vision

Lonnqvist B, Scialom E, Gokce A, Merchant Z, Herzog MH, Schrimpf M

International Conference on Machine Learning (PMLR 267)

ICML
2024

Latent Noise Segmentation: How Neural Noise Leads to the Emergence of Segmentation and Grouping

Lonnqvist B*, Wu Z*, Herzog MH

International Conference on Machine Learning (PMLR 235)

ICML
  1. Journal of Neural Engineering: deep-learning features improve simulated prosthetic vision
  2. ICLR 2026: Model-Guided Microstimulation Steers Primate Visual Behavior
  3. PhD thesis: Differences in Visual Perception in Humans and Deep Neural Networks
  4. In the press: AI can't see as well as humans, and how to fix it
  5. ICML 2025: Contour Integration Underlies Human-Like Vision

For research collaborations, talks or press, contact me on LinkedIn.