Close-up of an the ICR logo on a research centre

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.

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].

 

 

News from the ICR

05/11/25

Like the astronomical explosion that kickstarted the universe, bowel cancer has a 'Big Bang' moment which determines how it will grow, according to new research.

The team, from The Institute of Cancer Research, London, found that the 'Big Bang' moment for bowel cancer is created by the cancer cells successfully hiding themselves from the immune system – a process called immune escape.

During this process, bowel cancer cells disrupt genes which allow the cancer to be detected by the immune system. After the point of immune escape, the scientists observed that very limited changes occurred in how the cancer presented itself to the immune system.

Identifying those more likely to respond to immunotherapy

This research – funded by Cancer Research UK and the Wellcome Trust, and published in the journal Nature Genetics – suggests where doctors should look to potentially identify people with bowel cancer who are more likely to respond to immunotherapy, including vaccines for bowel cancer, which are designed to help the immune system recognise and destroy cancer cells.

Bowel cancer is the fourth most common cancer in the UK with around 44,100 new cases every year – roughly 120 every day. Around 15 per cent of bowel cancers are known to respond well to immunotherapy, with the remainder less likely to respond to this type of treatment.

Several therapeutic bowel cancer vaccines are currently in clinical trials. Designed to train the immune system to prevent bowel cancer from coming back after initial treatment, they recognise and destroy newly emerging bowel cancer cells.

Escaping the immune system

In the study, the scientists analysed the organisation of immune and cancer cells in bowel cancers from 29 people. They generated full DNA and RNA sequences and looked at how closely the DNA was wound around proteins in the chromosomes – known as epigenetics.

The scientists found that cancer cells can escape the immune system through epigenetic changes which alter how DNA is 'read' to make RNA, the instructions used to make proteins.

In cancer, those alterations affect how many neoantigens – 'red flag' proteins that attract immune cells – appear on the surface of the cancer cell. Fewer neoantigens make it harder for the immune system to recognise and destroy the cancer.

Scientists believe that combining immunotherapy with epigenome-modifying drugs could make immunotherapy work better for bowel cancer patients, by making the cancer make more neoantigens which the immune system can target. Further studies are needed to test this idea, before patient clinical trials could start.

Understanding how tumours evolve

Professor Trevor Graham, Professor of Genomics and Evolution and Director of the Centre for Evolution and Cancer at The Institute of Cancer Research, London, said:

"Some bowel cancers are ‘born to be bad.’ How they interact with the immune system is set early on.

"Immunotherapy and bowel cancer vaccines hold enormous promise for treating the disease. Our research suggests that a bowel cancer’s relationship with the immune system doesn’t change very much as it grows. If we can target that relationship early on, treatment should have a stronger chance of success.

"As bowel cancer treatment becomes increasingly personalised, understanding how tumours evolve and change matters even more than it did before. Like the explosion which set the course of the universe, bowel cancer’s Big Bang gives us the biggest clues of what its future holds and how we might change that future."

Understanding what happens at the earliest stages of disease

Dr Catherine Elliott, Director of Research at Cancer Research UK, said:

"To beat bowel cancer for everyone, we need to understand what happens at the very earliest stages of the disease. No matter how different bowel cancer tumours can look, one defining moment at the start makes a big difference to how the cancer grows.

"Bowel cancer has an insidious ability to resist treatment. Immunotherapy is starting to work well for patients, but it doesn’t work for everyone. This research helps us understand why, as well as giving us new insights to make immunotherapy work better for bowel cancer."

Tom Collins, Research Lead for Discovery Research at the Wellcome Trust, said:

"Through tracing the earliest stages of bowel cancer, the research team has shed valuable new light on a mechanism that could lead to more targeted, effective and early treatments.  

"This is a powerful example of discovery science. Research at this molecular level has provided a deeper understanding of how bowel cancer develops, which could lead to the improved health outcomes for patients in the long-term."