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.

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

10/07/26

Researchers have developed a new statistical approach that could help improve how early-stage cancer trials identify the safest and most effective doses of advanced therapies, such as CAR-T therapy.

The method, called DOSET (Dose Optimization with Simultaneous Efficacy and Toxicity), was developed through a collaboration between King’s College Hospital, King’s College London and The Institute of Cancer Research, London. It offers a more efficient and flexible way to design early-phase clinical trials, particularly in settings where only small numbers of patients can be recruited.

The findings, published in the journal ESMO Open, mark the first publication of a novel statistical trial design developed by ICR Clinical Trials and Statistics Unit (ICR-CTSU) Early Phase and Adaptive Trials Group for one of its clinical trials. This work was supported by grants from Cancer Research UK.

Rethinking how early-phase trials work

Early-phase clinical trials are designed to identify safe doses of new treatments. Traditionally, these studies have focused on finding the maximum tolerated dose, based on the assumption that higher doses are more effective.

But this assumption does not always hold true for newer and advanced therapies, such as CAR-T cell therapy, for which dose-response relationships can be more complex. CAR-T therapy is a highly personalised form of immunotherapy used to treat blood cancers, such as leukaemia and lymphoma, that have not responded to treatments or have relapsed.

In CAR-T trials, additional challenges arise because studies typically enrol relatively small numbers of patients. This is due to limited eligible populations, along with factors such as the complexity of the treatment and the need for personalised manufacturing.

These constraints make it especially important to make the best possible use of data as they accumulate during the trial.

A more adaptive approach

DOSET is a novel dose-optimisation design developed specifically for a first-in-human CAR-T therapy trial of a next generation CAR-T cell product (pCAR19) at King’s College Hospital. It combines several advanced statistical methods into a single adaptive framework, allowing researchers to assess both toxicity and preliminary efficacy at the same time, rather than focusing on safety alone.

As a result, the approach can identify doses that strike a better balance between safety and effectiveness, while reducing the number of patients exposed to doses that are either too low to work or too toxic.

The design also allows trials to stop early if a treatment looks unlikely to be effective or appears unsafe, helping to protect patients and improve efficiency.

Better performance in small trials

To evaluate the method, the researchers compared DOSET with an existing dose-optimisation approach used in early-phase CAR-T trials.

Across a range of realistic clinical scenarios, DOSET demonstrated consistently stronger performances. It showed a higher likelihood of correctly identifying doses that were both safe and effective, while maintaining similar levels of patient safety. It was also better at advising researchers when to stop trials early when no suitable dose could be identified, reducing unnecessary exposure to ineffective treatments.

Importantly, these advantages were seen even in small-sample settings, which are common in CAR-T studies.

First author Dr Xinjie Hu, who was a senior trial statistician in the Early Phase and Adaptive Trials Group in ICR-CTSU, said: “Many modern therapies, such as immunotherapies and targeted therapies, do not follow traditional assumptions about how dose relates to effectiveness. In these settings, more flexible trial designs like DOSET could help improve how doses are selected, ultimately supporting better decision-making in early-stage drug development.”

Future implications

The research team hopes the work will contribute to a broader shift towards evidence-based dose optimisation in early-phase clinical trials, beyond CAR-T, increasing the chances that new treatments are identified more quickly.

Senior author Professor Christina Yap, Professor of Clinical Trials Biostatistics and Group Leader of the ICR-CTSU Early Phase and Adaptive Trials Group, said: “Developing DOSET in close collaboration with clinical teams at King’s College Hospital and King’s College London allowed us to address a real challenge in early-phase trials – how to make the best possible decisions with limited patient data.

“It’s particularly rewarding to see a methodological innovation progress from concept through to implementation in a real clinical trial and publication. We hope this approach will support more informed, patient-centred decision-making and contribute to improving outcomes in early-phase cancer research.”

Chief Investigator Dr Reuben Benjamin, Haematologist and Clinical Senior Lecturer at King’s College London, said: “For advanced therapies such as CAR-T, finding the right dose is not always as straightforward as administering higher doses and expecting a better outcome. Our aim is to identify the precise doses needed to maximise benefit for patients while minimising unnecessary risks. DOSET gives us a more sophisticated way to analyse clinical trial data, and we hope this approach will not only benefit this CAR-T trial but also help improve the development of future cell and gene therapies for patients with blood cancer.”

Banner image: Clinical trials pharmacy (Jan Chlebik for the ICR, 2014)