Investigating how regulatory regions of the genome communicate with cancer causing genes
Finding which regulatory regions of the genome are causing leukaemia by acting on the wrong gene
We have been funding expert research since 2016, aiming to ensure that every child and young person has a safe and effective treatment for their cancer, and that they can live long and happy lives post-treatment.
Finding which regulatory regions of the genome are causing leukaemia by acting on the wrong gene
Our proposal will deliver novel, less toxic targeted therapies with the potential to advance current treatment regimens for B-ALL. This will improve current outcomes, reduce side-effects in B-ALL patients and ultimately lead to a better quality of life for patients and their families.
Ewing sarcoma is the second most common bone tumour in young people. The primary goal of this project is to fast-track a targeted drug combination for evaluation in clinical trials, with the aim of improving outcomes and minimising treatment associated morbidities for Ewing sarcoma patients.
Investigating a new method to improve the success of bone marrow transplants, using a different type of blood cells.
Immunotherapy could be a potential treatment for ependymoma. To make immunotherapy effective we need to know more about how ependymoma works.
Glo-BNHL trial is an international trial that will recruit children across the globe with relapse BNHL and assign them to the trial to receive a novel therapy. We are requesting funds to conduct biological studies alongside the trial to improve our understanding of this cancer.
Looking at the molecular effects inside Acute Myeloid Leukaemia cells treated with a specific new drug and investigating if the drug can be combined with other standard treatments.
Half of patients Ependymoma (EPN) with no disease after treatment on MRI relapse within 2 years. This suggests that they have low level or minimal residual disease (MRD). Developing an accurate MRD detection test could help improve survival.
This work focuses on defining how a new oncoprotein (called CARM1) we have discovered in neuroblastoma cells helps the cancer cells to survive, grow and avoid death.