Cell Division Research

Decoding the Mechanisms ofCell Cycle Control

We are investigating how cells switch between interphase and mitosis. We explore basic cell cycle control mechanisms and potential applications in cancer therapy. As part of this process we are also developing new genetic, and computational tools to study cell cycle control.

Microscopy image of cells undergoing mitosis
Hochegger Lab team members working in the laboratory

Who We Are

We are a group of experimental and computational cell biologists at the Genome Damage and Stability Centre, University of Sussex. We are passionate about understanding how cells divide and maintain genomic integrity. Our mission is to advance fundamental knowledge of cell cycle control while informing the development of targeted cancer therapies.

Contact Us

Genome Damage and Stability Centre

University of Sussex

Brighton BN1 9RQ

United Kingdom

Latest Projects

Our current research focuses on understanding cell cycle control mechanisms and their therapeutic implications

Greatwall Inhibition

translational

Developing small molecule inhibitors targeting the Greatwall kinase pathway to enhance cancer cell sensitivity to mitotic drugs. This project aims to identify novel therapeutic strategies for treatment-resistant tumors.

PI: Robert Zach

Drug DiscoveryKinase InhibitorsMitosis
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Exploring the dynamic regulation of mitotic entry

basic

Investigating the molecular crosstalk between Cdk1 and PP2A regulation in late G2 phase. We are exploring how this complex signalling module ensures that mitosis occurs at the right time and proceeds reliably.

PI: Sam Dias, Megan Meredith

Cell CycleCell DivisionSignal Transduction
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OMERO-Screen

tool

Implementing an advanced high-content screening platform using OMERO for automated analysis of cellcycle phenotypes. This infrastructure will accelerate our single cell analysis of mitotic entry.

PI: Helfrid Hochegger

High-Content ScreeningImagingDeep Learning
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Python for Biologists

teaching

Teaching computational skills to life scientists through hands-on Python programming courses. We cover data analysis, visualization, and automation to empower biologists with modern computational tools.

PI: Helfrid Hochegger, Jo Renault

PythonData ScienceEducation
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Lab News

Stay updated with the latest developments, publications, and team updates from our laboratory

Greatwall regulates leukaemia cell division through a non-canonical mechanism, now published in EMBO Reports

Our collaboration with Sandra Martin-Guerrero and Pedro Cutillas (now at the Instituto de Parasitología y Biomedicina López-Neyra, Granada) is out in EMBO Reports. AML cells need Greatwall kinase to proliferate, but not through its classic ENSA/ARPP19–PP2A-B55 pathway. Instead, Greatwall controls cytokinesis, partly by phosphorylating MARK3, which we identify as a new direct substrate.

View publicationSeptember 30, 2026

DNAgent is now open for beta testing

DNAgent is our open-source DNA design and cloning workbench. It opens SnapGene and GenBank files, draws plasmid maps, simulates digests and Gibson assemblies, and designs primers. The desktop app and command-line tool share one Rust engine, so you and an AI agent can work on the same constructs. Try it and send feedback on GitHub.

View on GitHubOctober 9, 2026

Rob's new preprint: Greatwall/PP2A-B55α shapes cancer cell dependence on PKMYT1

Rob's new bioRxiv preprint shows that in cancer cells, PP2A-B55α works with PKMYT1 to keep cells from entering mitosis too early. Shifting the Greatwall/PP2A-B55α balance makes cancer cells, but not normal cells, much more sensitive to the PKMYT1 inhibitor RP-6306. This points to a new way to target PKMYT1 in therapy.

View publicationSeptember 8, 2026