Cancer Dynamics

We strive to:

  • Predict and personalise treatment: develop accurate predictive models to tailor treatments based on individual cancer evolution.
  • Uncover mechanisms of resistance: identify and understand the genetic and environmental factors that drive resistance to therapies, enabling the development of more effective treatment strategies.
  • Innovate therapeutic approaches: utilise insights from our research to innovate new therapeutic approaches, including potential vaccines and personalised medicine, that can disrupt cancer evolution and improve prognosis.
  • Collaborate for comprehensive solutions: work with clinical and pharmaceutical partners to translate our research findings into real-world clinical applications, ensuring that our discoveries lead to tangible improvements in cancer care.

Through these efforts, our lab aims to fundamentally alter the landscape of cancer treatment, making therapies more effective and tailored to individual patient needs, ultimately improving survival rates and quality of life for cancer patients worldwide.

A graphical representation of a person with coloured circles indicating the location and prevalence of metastatic clones that have spread to different parts of the body
Representative MIF images of TRACERx Renal tumor samples with low wGII
Representative MIF images of TRACERx Renal tumor samples with high wGII
Radiologic images of a patient indicating thorax upon initiation of stage IV metastatic melanoma, showing complete extracranial response to BRAF inhibitor, followed by rapid recolonization of the thorax with resistant clones (left to right)

Cancer Dynamics areas of interest

Modelling cancer evolution

One of the fundamental questions in cancer evolution is the repeatability and stability of evolutionary trajectories.

Clear cell renal cell carcinoma (ccRCC) progresses through conserved evolutionary trajectories, beginning with the loss of chromosome 3p with additional inactivation of the VHL gene, which occurs in 90% of cases. This research aims to recreate ccRCC’s evolutionary trajectories using patient-derived organoid models.

Constraints of evolution in renal cell cancer

This study focuses on understanding the immune response in clear cell renal cell carcinoma (ccRCC), which has a low to moderate tumour mutational burden (TMB) with a high incidence of frameshift mutations, potentially leading to increased neoantigen expression.

Tracking evolution of melanoma through therapy resistance

Melanoma is the fifth most common type of cancer and the most frequent among the young adult population in Europe. Immunotherapy has greatly improved survival for advanced melanoma, but almost half of melanoma patients still lose their lives to cancer.

Modelling cancer evolution
Constraints of evolution in renal cell cancer
Tracking evolution of melanoma through therapy resistance

A note from the Group Leader – Samra Turajlić

I’m honoured to be taking on the role of Director of the Cancer Research UK Manchester Institute and look forward to working alongside such a talented community of scientists and clinicians.

Together with its partners, the Institute is poised to deliver transformational cancer research in the coming years. I am excited to lead the Institute in its mission to deliver for people with cancer.

Get in touch

Gloved hands filling a stripette white lab coat

Latest from CRUK MI

Cancer Research In the Paterson Building

Find out more about the facilities across the Institute

Leukaemia Immunology & Transplantation

The Leukaemia Immunology and Transplantation laboratory aim to develop a comprehensive strategy to prevent post-transplant relapse in patients treated with allogeneic haematopoietic stem cell transplantation – the only curative therapy for many patients with acute myeloid leukaemia (AML) and other poor-risk haematological malignancies.

Patient derived preclinical models reveal novel biology of SCLC

Immune detection of dying tumour cells can elicit cancer immunity when the host permits it

Cancer Research In the Paterson Building
Leukaemia Immunology & Transplantation
Patient derived preclinical models reveal novel biology of SCLC

Institute life in Manchester

We strive to make our community a welcoming, caring and enthusiastic one, fuelling ambition with opportunities for training and mentoring to help us all achieve our personal and professional goals.

“We are so pleased to have received the funding to enable us to test our hypothesis in the lab. If we can create a new medicine that can precisely target a specific type of cell within the tumour, and restore anti-cancer immune responses, this will be a game-changer for oesophageal cancer patients “

Sara Valpione

Former Institute Clinical Fellow and now Clinician in Residence within the CRUK National Biomarker Centre

“My charity bake sales – known as “David’s Great British Bake Off” – are always a hit, home baked products taste so much better than shop bought and are greatly appreciated by staff!”

David Jenkins

Purchasing Officer

“We’ve seen some remarkable responses, with an improvement for some patients within days. This is an early phase trial so there’s a lot more work to do. But the data we have so far is very encouraging and could help many thousands of people in the future”

Tim Somervaille

Senior Group Leader

“It is a pleasure to introduce my team who work to deliver our research goals. We work in a friendly and collaborative environment, supporting each other’s projects.  “

Amaya Virós

CRUK Advanced Clinician Scientist Fellow

Careers that have a lasting impact on cancer research and patient care

We are always on the lookout for talented and motivated people to join us.  Whether your background is in biological or chemical sciences, mathematics or finance, computer science or logistics, use the links below to see roles across the Institute in our core facilities, operations teams, research groups, and studentships within our exceptional graduate programme.