Investigating the shape of fusion genes in rhabdomyosarcoma
How the 3D shape of fusion gene genetic code affects cancer cell behaviour and whether shape-modifying medicines could mitigate these effects.
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.
How the 3D shape of fusion gene genetic code affects cancer cell behaviour and whether shape-modifying medicines could mitigate these effects.
Assessing rhabdomyosarcoma risk prediction markers based on the biological conditions in the tumour, like low oxygen levels, few blood vessels, and genetics.
Looking at why ALCL sometimes relapses with a new targeted treatment, and understanding how to optimise this treatment approach.
Looking at the differences between healthy brain cells before and after treatment to uncover the mechanisms behind brain-related late effects.
Finding a way to identify patients at risk of brain related side effects from leukaemia treatment, and gathering data to inform future treatment options.
Developing a test that can measure the amount of chemotherapy-resistant leukaemia cells in patient's blood samples. This would provide the foundations for future research.
Learning more about leukaemia cells in order to design targeted treatments that can increase survivorship and quality of life.
Ependymoma comes back after treatment around half of the time, because some cancer cells are still alive. If doctors could identify these cells and diagnose relapsed ependymoma sooner, children could start treatment earlier.
Discovering what causes nerve cells to stop working and die years after a Langerhans cell histiocytosis diagnosis.