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Centre for In Vivo Modelling

The Centre for In Vivo Modelling is a newly established research centre within the Division of Cancer Biology at the ICR. Our scientists and clinical researchers use state-of-the-art in vivo models to address fundamental questions in cancer biology, with the ultimate aim of identifying curative treatments. We also serve as a collaborative hub across the ICR and The Royal Marsden, providing cutting-edge expertise in advanced mouse genetics and humanised in vivo models of cancer.

Professor Kamil R Kranc, Chair of Haemato-Oncology, serves as the Centre's Director, while Fabiana Muzzonigro is the Centre Administrator.

 

How we conduct research at this centre

Solid tumours and blood cancers are highly complex ecosystems, with many composed of varying cell types including rare cancer stem cells at the apex of a hierarchical organisation, more differentiated malignant progeny, and a dynamic microenvironment that nurtures tumour growth and survival. At our Centre, we seek to elucidate the fundamental principles that govern this malignant ecosystem. We employ advanced mouse genetics (including barcoding and lineage tracing) and PDX models to dissect how tumour cells function, evolve under selective pressures, evade therapy, and engage with their microenvironment to sustain disease progression. By decoding these intricate cellular and molecular interactions, we aim to identify transformative therapeutic strategies capable of eradicating cancer at its origin - achieving durable remission while preserving normal tissue integrity.

A particular strength of our Centre lies in the generation and application of in vivo models, which are essential for uncovering novel aspects of cancer biology and evaluating emerging therapies. We work in close collaboration with ICR researchers and clinicians at The Royal Marsden to develop patient-derived xenograft (PDX) models of leukaemias and solid tumours by transplanting human cancer tissue into immunocompromised mice. In parallel, we generate and utilise genetically engineered mouse models (GEMMs) to interrogate cancer biology in a physiologically relevant context. By leveraging these sophisticated in vivo systems, the Centre aims to:

  • Uncover new facets of cancer biology in a complex in vivo ecosystem
  • Discover and validate novel therapeutic targets allowing for elimination of cancer stem cells and their malignant progeny in blood cancers and solid tumours
  • Collaborate closely with drug discovery teams at the ICR to develop inhibitors of these targets
  • Evaluate new anti-cancer drugs in pre-clinical in vivo models, paving the way for clinical trials.

In addition to our academic focus, CIVM serves as a collaborative hub across the ICR and The Royal Marsden, providing the ICR community with cutting-edge expertise in advanced mouse genetics and humanised mouse models of cancer.

Join us

We are recruiting two exceptional Group Leaders to join the Division of Cancer Biology and the Centre for In Vivo Modelling (CIVM). This is a unique opportunity to shape the future of cancer biology research, lead innovative programmes, and make discoveries that transform patient outcomes.

These new Group Leaders will investigate fundamental mechanisms of tumour initiation, progression, and treatment resistance, and develop cutting-edge preclinical models to advance understanding of cancer biology. Working in close collaboration across the ICR and The Royal Marsden Hospital, the postholders will translate discovery science into new therapeutic opportunities, contributing to the ICR’s mission to make the discoveries that defeat cancer.

Find out more about the vacancies

Members of this Centre

Pipettes and well plates

In Vivo Modelling core

We provide cutting-edge expertise in advanced mouse genetics and humanized mouse models of cancer.

CIVM Service Core

Other staff:

Driving discovery through collaboration 

At CIVM, our collaborative spirit drives our mission to advance cancer cures. We actively partner with basic science, translational, and clinical research groups across the ICR and The Royal Marsden. Our collaborations also extend beyond, working closely with distinguished academic teams at the Universities of Oxford, Cambridge, Edinburgh, Cardiff, London, Glasgow, and the Francis Crick Institute.

 

News from the Centre

We are recruiting a Group Leader in In Vivo Cancer Modelling. We welcome applications at both the Career Development Faculty and Career Faculty levels. Competitive start up package is available. For further particulars please contact [email protected].

 

 

Current vacancies

There are currently no vacancies available in this group or area.

News from the ICR

11/03/26

A gene that is typically active only in reproductive cells may hold the key to new treatments for triple negative breast cancer, according to new research.

Scientists from the Breast Cancer Now Toby Robins Research Centre at The Institute of Cancer Research, London (ICR) and the Breast Cancer Now Research Unit at King’s College London, have uncovered a new weakness in triple negative breast cancer linked to a gene called HORMAD1 and a way to target it.

An aggressive and harder to treat cancer

Around 15 per cent of breast cancers are classed as triple negative.

This form of breast cancer can be more aggressive and harder to treat than other forms of the disease. It is also more common in women with an inherited altered BRCA gene, women under 40 years of age, and Black women.

The HORMAD1 gene is normally only switched on in cells involved in reproduction in the ovaries and testes and remains inactive elsewhere in the body. It’s responsible for ensuring the genetic information is distributed properly in sperm and eggs.

However, in some cancers, including 60 per cent of triple negative breast cancers, the HORMAD1 gene becomes active out of context. The results of the study, funded by Breast Cancer Now and published today in the journal Nature Communications, found that when the HORMAD1 gene is active in triple negative breast cancer cells, it disrupts a key safety mechanism.

Identifying potential drug candidates

The researchers uncovered a series of events and key proteins involved in this process, which leads to errors in DNA being passed onto new cancer cells. While these changes can help cancer grow and resist treatments, the researchers also showed it’s a weakness that can be targeted with new treatments. The study identified several drugs currently being investigated as cancer treatments that could be effective against triple negative breast cancer cells with the active HORMAD1 gene.

Targeted inhibitor testing

The researchers tested whether blocking Aurora B, MPS1 and BUB1 proteins stopped the growth of cells with the active HORMAD1 gene in the lab. They also looked at whether two Aurora B inhibitors, currently in early-stage clinical trials, worked to treat mice carrying human triple negative breast cancer tumours with the active HORMAD1 gene. The treatment successfully reduced tumour growth, further validating their findings. They will now investigate the possibility of developing drugs that target Aurora B, MPS1 and BUB1 for patients with this type of breast and possibly other cancers.

‘An important step forward’

Professor Andrew Tutt, Director of the Breast Cancer Now Toby Robins Research Centre at The Institute of Cancer Research, London and The Breast Cancer Now Research Unit at King’s College London, corresponding author of the study, said:

“Although this research is still in its early stages, it offers an important step forward in understanding triple negative breast cancer and opens the door for the development of new treatments. It also highlights that testing for the activity of the HORMAD1 gene in triple negative breast cancer could guide treatment decisions in the future. Together, these insights bring us closer to developing more precise therapies for people with triple negative breast cancer.”

New research priorities

Dr Simon Vincent, chief scientific officer at Breast Cancer Now, which funded the research, said:

“Each year, around 8,000 UK women are diagnosed with triple negative breast cancer and it’s more likely than most other breast cancers to return or spread during the first years following treatment. There are also fewer targeted treatments available, so it’s vital we find new and effective ways to tackle this devastating disease. The findings open the door to the next crucial phase of research, where the research team can identify and test the most effective drugs or drug combinations against triple negative breast cancer with an active HORMAD1 gene, and move the safest and most promising options towards clinical trials.”

 'It can feel like you’ve been given a life sentence — but with continued research comes hope'

Liz Boughton, 50, NHS Finance Manager from Northamptonshire, was diagnosed with triple negative breast cancer in August 2024. “In July 2024, I accidentally brushed my arm against my breast and felt a very small lump. I dismissed it until I was persuaded by my husband to make an appointment with my doctor. I was quickly referred to the breast clinic, where a whirlwind of tests led to a diagnosis of triple negative breast cancer. I was 49, healthy, with no family history — cancer wasn’t something I expected to hear.

“I began 6 months of neo-adjuvant chemotherapy immediately, to shrink the tumour before surgery. I was also given immunotherapy (weekly) alongside the chemotherapy, a new treatment option for some people with triple negative breast cancer, which can improve outcomes. Once treatment began, it pulled me, and those around me, into a world we never knew existed. I then underwent surgery, followed by radiotherapy and a further 9 infusions of immunotherapy over 27 weeks.

“When you’re diagnosed with a type of breast cancer that has fewer treatment options and a higher risk of returning soon after diagnosis, it’s hard not to live with constant uncertainty about the future. It can feel like you’ve been given a life sentence — but with continued research comes hope.”