Benjamin Rowland Group | Chromosome Biology | Netherlands Cancer Institute

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Positions available

We are recruiting. We encourage prospective postdocs, PhD students, technicians, and undergraduate students to send an enquiring email to Benjamin, including CV and motivation.

Our research is supported by the European Research Council (ERC), the Dutch Cancer Society (KWF), the Dutch Research Council (NWO), the Dutch Life Sciences & Health sector (Health Holland), the Boehringer Ingelheim Fonds (BIF), and the Wellcome Trust.

Dekker et al., Science, 2023

Shaping the genome with SMC motors

How do meters of DNA fit into our tiny cells? Benjamin and colleagues propose a mechanism for how SMC molecular motors fold our DNA into loops. "Such a mechanism may shape the DNA of all life on earth.”

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The “reel-and-seal” model for DNA loop extrusion

This mechanism explains how SMC molecular motors could fold our DNA into loops. Such loops play a central role in important cellular processes such as cell division, gene regulation, and DNA repair.

Movie by Dekker, Haering, Peters & Rowland, published in Science: DOI: 10.1126/science.adi8308

Hoencamp et al., Science, 2021

Condensin II as a determinant of architecture type

In an incredible collaboration with the labs of Erez Lieberman Aiden, Jose Onuchic, Michele di Pierro, multiple NKI-based groups, and the DNA Zoo consortium, we study chromosome-scale genome folding across the eukaryotic tree of life. The absence of condensin II subunits turns out to correlate with the type of nuclear architecture. Depletion of condensin II in human cells transforms the folding of the human genome into a state as found in mosquitoes and fungi.

Read THIS PAPER, our PRESS RELEASE, and this COOL STORY.

Li et al., Nature, 2020

Genome folding by cohesin & CTCF

Cohesin folds the genome into loops that are anchored by CTCF. In a great collaboration with the lab of Daniel Panne, we show that the interaction of the CTCF N-terminus with the SA2-SCC1 subunits of cohesin stabilises cohesin at CTCF sites. This interaction is essential for CTCF-anchored loops genome-wide. We propose that CTCF enables chromatin loop formation by protecting cohesin against loop release.

Read THIS PAPER and our PRESS RELEASE.