Completed Cancer Digestion, Kidneys & Other Organs

Urothelial Cancer Genomics

In plain English

AI plain-English summary

Bladder cancer hits Yorkshire harder than anywhere else in the UK, and it is the most expensive cancer to treat. This programme will scan the complete DNA of hundreds of bladder tumours to find the genetic changes that drive the disease. The problem is that doctors currently lack reliable genetic tests to predict which bladder cancers will turn aggressive or which drugs a patient will respond to. Without that information, treatment decisions are made largely on tumour stage and grade—blunt tools that miss crucial biological differences. The Yorkshire research team has already found that these tumours contain a wealth of unexplored genomic information. They will now map DNA copy number changes and mutations across a large panel of tumour samples, then develop simple, clinic-ready assays that can flag the most informative genetic markers. If successful, this work could give clinicians a practical tool to personalise treatment—sparing some patients from harsh chemotherapy that won't help them, while steering others toward more aggressive therapy early. It could also reveal new molecular targets for drug development. The immediate impact is on medical diagnostics and the treatment pathway for bladder cancer, a disease that quietly consumes enormous healthcare resources.

View original technical description
The incidence of urothelial carcinoma (UC) of the bladder is significantly higher in Yorkshire than in the rest of the UK. As it is the most expensive cancer to treat, this represents a major healthcare burden. There are pressing needs to improve our understanding of molecular pathogenesis, to provide clinically applicable prognostic and predictive biomarkers and to develop new approaches to therapy. Our current findings indicate that there is considerable unexplored genomic information in these tumours. This programme will use state of the art technologies to examine UC genomes to identify biomarkers relevant to the pathway of patient care and to suggest novel approaches to therapy. We will obtain detailed information on DNA copy number and mutations. The utility of genomic features as biomarkers will be tested in an extensive tumour panel and assays suitable for application in the clinic will be developed.

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Researchers

Margaret Knowles (EPMC Awardee)

Related Research

Grants with similar aims, by meaning.

Molecular Biology of Urothelial Cancer
Gene expression subtypes of Urothelial cancer: Stratified Treatment and Oncological outcomes
Gene expression subtypes of Urothelial cancer: Stratified Treatment and Oncological outcomes (GUST)
Non-invasive genomic profiling of bladder cancer using urinary cfDNA
Knowles - Research Services

Original classification

Research Grant

Plain English summaries and category classifications on this site are generated by AI and may not perfectly reflect the original research.