Postdoctoral researcher position in Functional Genomics | IGBMC
Postdoc position available in our lab @igbmc.bsky.social
We have an exciting project aimed at re-visiting the (epi-)genomic functions of AT-binding proteins using state-of-the-art technologies: www.igbmc.fr/en/igbmc/lif...
Expected start: from March 2026
Please share 📢
11.12.2025 10:40 —
👍 6
🔁 3
💬 0
📌 0
Thanks very much Brian for your positive feedback! :)
It would be interesting to see if this kind of approach can be applied to other chromatin-binding proteins regulating transcription globally.
04.12.2025 12:35 —
👍 1
🔁 0
💬 1
📌 0
Single-Molecule DNA Footprinting and Transcription Imaging Reveal the Molecular Mechanisms of Promoter Dynamics https://www.biorxiv.org/content/10.1101/2025.11.26.690466v1
27.11.2025 03:19 —
👍 8
🔁 4
💬 0
📌 0
8/8 In conclusion, our work shows that:
1- SALL4 function relies entirely on multimerisation via a conserved Q-rich region mutated in human diseases (Giuliani et al).
2- SALL4 is an atypical transcription factor modulating the epigenome via dispersed binding to AT-rich DNA (Chhatbar et al).
26.11.2025 13:59 —
👍 1
🔁 0
💬 0
📌 0
7/8 To gain further mechanistic insight, we designed mutagenesis and domain swap experiments in stem cells and animal models. This showed that recruitment of the chromatin remodelling complex NuRD is essential for SALL4 function in vivo.
26.11.2025 13:59 —
👍 1
🔁 0
💬 1
📌 0
6/8 Combining acute degradation with multi-omics and explainable machine learning, we uncovered a crucial role for dispersed SALL4 binding over gene bodies. SALL4 influences chromatin structure at both transcriptionally “active” and “silent” regions, indicating a primary action on the epigenome.
26.11.2025 13:59 —
👍 2
🔁 0
💬 1
📌 0
4/8 Additionally, we modelled patient variants in SALL4 and SALL1 using cellular and animal models, demonstrating that multimerisation is involved in the pathogenesis of both Okihiro (OS) and Townes-Brocks (TBS) syndromes.
26.11.2025 13:59 —
👍 1
🔁 0
💬 1
📌 0
3/8 We mapped an evolutionarily conserved Q-rich Interaction Domain (QID) responsible for the formation of tetrameric SALL complexes. Strikingly, mutation of this domain within SALL4 (forcing the protein to become monomeric) abolishes chromatin binding and mimics a complete knockout!
26.11.2025 13:59 —
👍 1
🔁 0
💬 1
📌 0
1/8🧵 Excited to share two studies in which I was involved within the Bird Lab📄📄 We have explored how the transcription factor SALL4 assembles and shapes chromatin in embryonic stem cells.
@kashyapchhatbar.bsky.social @saragiuliani.bsky.social @drphcb-uoe.bsky.social @edinburghbiology.bsky.social
26.11.2025 13:59 —
👍 10
🔁 4
💬 1
📌 3
The IGBMC is recruiting a new Computational Biology Group Leader through the ENACT AI Chair for Scientific Discoveries, covering cancer, developmental, and structural biology. Join one of Europe’s leading life science centers!
cluster-ia-enact.ai/appels-a-pro...
Deadline: Jan 7, 2026
13.11.2025 09:33 —
👍 8
🔁 12
💬 0
📌 1
5/5 Many thanks to reviewers for their constructive feedback, and also to the editorial team of EMBO Journal for their availability and professionalism.
30.10.2025 16:40 —
👍 0
🔁 0
💬 0
📌 0
4/5 Overall, our results uncover an unexpected role for TET proteins in controlling early germline commitment. However, the molecular mechanisms underlying this phenomenon (which may involve targeted DNA de-methylation or other chromatin changes) remain to be investigated in further details.
30.10.2025 16:40 —
👍 0
🔁 0
💬 1
📌 0
3/5 Comparing single and combined TET1/2/3 knockout cell lines, we determined that redundant activity of TET1 and TET2 (but not TET3) controls stem cell differentiation potential. Additionally, we showed that TETs are dispensable for transitions between naïve, formative and primed pluripotent states
30.10.2025 16:40 —
👍 0
🔁 0
💬 1
📌 0
2/5 Our main finding is that TET proteins control the balance of differentiation between somatic and germline lineages. We found out that TET-deficient embryonic stem cells differentiate very efficiently into germ cells (PGCLCs) in vitro, at the expense of endoderm/mesoderm/ectoderm pathways.
30.10.2025 16:40 —
👍 0
🔁 0
💬 1
📌 0
TET knockout cells transit between pluripotent states and exhibit precocious germline entry | The EMBO Journal
imageimageThe roles of TET DNA demethylases during early development remain poorly defined.
This work uncovers independence of early mouse embryonic stem cell (ESC) transitions
from TET proteins but a...
1/5 Glad to share our latest work with Ian Chambers’ lab published @embojournal.org in which we investigated the role of TET DNA de-methylases during cell fate transitions.
Great team effort, many thanks to Sara Gonzalez Brito @ebarbieri.bsky.social @edinuni-irr.bsky.social
doi.org/10.1038/s443...
30.10.2025 16:40 —
👍 8
🔁 2
💬 1
📌 0
TET knockout cells transit between pluripotent states and exhibit precocious germline entry
Ian Chambers and collaborators
www.embopress.org/doi/full/10....
27.10.2025 12:25 —
👍 13
🔁 5
💬 0
📌 0
TriRhena Gene Regulation Club
The TriRhena Gene Regulation Club is a one-day symposium that brings together researchers from France (IGBMC), Germany (MPI-IE) and Switzerland (FMI) who share a common interest in gene regulation.
👉 The next TriRhena Gene Regulation Club takes place at the Friedrich Miescher Institute @fmiscience.bsky.social in Basel.
📅 Nov. 5th, 2025 (14:00-20:00)
📌 FMI, Basel
✍️ Registration deadline: Oct. 20th, 2025
Attendance is free 💸 , but registration mandatory:
www.ie-freiburg.mpg.de/gene-regulat...
26.09.2025 08:02 —
👍 8
🔁 1
💬 0
📌 1
Could I be added to the list as well? Thanks Alexis :)
29.08.2025 08:18 —
👍 0
🔁 0
💬 1
📌 0
TET knockout cells transit between pluripotent states and exhibit precocious germline entry - preLights
Genetic gatekeepers of gametogenesis? TET proteins jointly jam germline specification, synergistically steering cells towards somatic fates.
Genetic gatekeepers of gametogenesis? TET proteins jointly jam germline specification, synergistically steering cells towards somatic fates.
@justingutbio.bsky.social's new #preLight talks about the work of @r-pantier.bsky.social and the team. Have a look!
06.08.2025 08:58 —
👍 7
🔁 2
💬 0
📌 0
TET knockout cells transit between pluripotent states and exhibit precocious germline entry - preLights
Genetic gatekeepers of gametogenesis? TET proteins jointly jam germline specification, synergistically steering cells towards somatic fates.
Excited to announce I recently highlighted another preprint for @prelights.bsky.social. In this preprint, @r-pantier.bsky.social and co-authors from the Chambers Lab at the University of Edinburgh find that the TET proteins act together to help mammalian cells specify into somatic lineages.
05.08.2025 16:20 —
👍 5
🔁 3
💬 0
📌 0
The human proteome with direct physical access to DNA
Zero-distance photo-crosslinking reveals direct protein-DNA interactions in living
cells, enabling quantitative analysis of the DNA-interacting proteome on a timescale
of minutes with single-amino-aci...
Excited our paper is out in Cell @cp-cell.bsky.social!
🧬⚡ DNA photo-crosslinking proteomics in living cells
🎯 Pinpoints protein-DNA interactions to single amino acids
🌎 Globally quantifies DNA binding for >1800 proteins at a timescale of minutes
🔗 www.cell.com/cell/fulltex...
🧵
23.05.2025 07:06 —
👍 65
🔁 24
💬 4
📌 1
🚨 New preprint out! Do you think Single Molecule Footprinting and Fiber-seq are super cool but aren't sure how to unlock their full potential? HiddenFoot can help you: www.biorxiv.org/content/10.1...
17.05.2025 17:00 —
👍 20
🔁 5
💬 0
📌 0
Hey! Check out our latest publication. A great collaboration with @longchrom.bsky.social and a nice example of how a negative result, the absence of a response to a transcriptional perturbation, can actually reveal an intriguing gene-specific buffering mechanism.
www.science.org/doi/10.1126/...
31.03.2025 07:30 —
👍 7
🔁 3
💬 1
📌 0