We released the first comprehensive lipidomic atlas of the adult mouse brain, mapping 172 membrane lipids and identifying 539 spatially coherent biochemical domains we call “lipizones”.
The name of our lab, the Laboratory of Brain Development and Biological Data Science, captures our belief that confronting the complexity of brain development requires making optimal use of large datasets: developing ways to generate, analyze, and extract meaning from them. We study brain cell states collectively, examining their diversity, molecular composition, spatial organization, and changes over time. We examine multiple molecular layers together, recognizing that cell properties arise from how these interact to shape fate decisions.
Our contributions include technical innovations, landmark resources, and discoveries that converge into expanding models for neural cell fate emergence. We pioneer cell-type discovery and atlasing in the developing nervous system, develop transformative methods to study transcriptome dynamics, and explore heterogeneity beyond gene expression using single-cell and spatial lipidomics. We see the complexity of the brain as an opportunity rather than an obstacle.
★ Looking for a postdoc, internship, master or a PhD? Get in touch!
We welcome applications from both experimentalists and analysts. A curiosity about how the nervous system develops and a quantitative mindset are important. Descriptions for some of the available projects can be found here.
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Popular science, News and Media
Gioele La Manno was included in Clarivate’s 2025 Highly Cited Researchers list for the second consecutive year, recognizing his continued impact in single-cell transcriptomics and brain development research.
We released the first comprehensive lipidomic atlas of the adult mouse brain on bioRxiv. Using MALDI mass spectrometry imaging, we mapped 172 membrane lipids across 109 sections and identified 539 spatially coherent biochemical domains we call lipizones.
The lab has been awarded an ERC Starting Grant (1.5M euros, 2026-2031) for the project MOVIOLA: Cell decision capture and control via joint Raman live and omics profiling, to understand molecular determinants of neural cell fate decisions.
By combining imaging mass spectrometry and a new computational framework called uMAIA, we tracked more than 100 types of lipids in space and time in the developing zebrafish embryo, revealing how lipids form highly organized patterns that correspond to anatomical structures. Published in Nature Methods.
Our collaborative work on Spotiflow, a deep learning method for subpixel-accurate spot detection in fluorescence microscopy, has been published in Nature Methods. The method achieves state-of-the-art performance while being robust to different noise conditions.
Gioele La Manno was included in Clarivate’s 2024 Highly Cited Researchers list, recognizing his innovative work in single-cell transcriptomics and brain development. At 34 years old, he is one of the youngest researchers on the list.
VeloCycle, our Bayesian model of RNA velocity for the cell cycle, has been published in Nature Methods. The method enables formal statistical testing of gene expression dynamics and identified developmental modulations of cell cycle speed.
The lab has been awarded an SNSF Starting Grant to demystify the role of lipids in the brain’s developmental blueprint, probing into uncharted functions of lipid metabolism to uncover how diverse lipid species impact neural cell formation and specialization.
The Board of the Swiss Federal Institutes of Technology has announced the appointment of professors at EPFL, including our group leader Gioele!
Who is science made by? And how do you become a researcher? Gioele La Manno describes the journey to become a scientist, sharing a point of view on many misconception of the figure of the scientist
Below the scientific software I have been working on:
Deep learning-based spot detection for fluorescence microscopy with subpixel accuracy. For more information visit the Spotiflow GitHub
Unified Mass Imaging Analyzer for spatial lipidomics. For more information visit the uMAIA GitHub
Statistical inference with a manifold-constrained RNA velocity model. For more information visit the VeloCycle GitHub
A package for the analysis of expression dynamics in single cell RNA seq data. For more information go to the velocyto homepage
A tool for building analysis pipeline for big single cell RNA sequencing projects
Core implementation the standard format to store and work with single cell expression data. For more information go to the loompy homepage
Negative binomial generalized linear model for single cell expression data
An alternative, lightweight, python interface to the Bayesian Modeling language Stan.
Reference implementation of the clustering algorithm described in Zeisel et al. 2015
An older file format designed to store smaller single-cell RNA seq datasets