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Chronic lymphocytic leukaemia (CLL) and diffuse large B-cell lymphoma (DLBCL) are blood cancers that have differences within and between each person. Professor Pepper wants to understand the specific features that cause these blood cancer cells to grow out of control and to understand why some cells aren’t destroyed by current treatments.

A man wearing glasses and a red Blood Cancer UK lab coat sat in a science lab

Project information

Lead researcher

Professor Chris Pepper, University of Sussex

Research team
  • A team at University of Sussex
Related conditions
  • Chronic lymphocytic leukaemia (CLL)
  • Diffuse large B-cell lymphoma (DLBCL)
Research type
  • Non-clinical
Region
  • South East
Grant awarded
  • Project Grant
Status
None
Funding award date
January 2024
Amount awarded

£279,998.26

The challenge

Chronic lymphocytic leukaemia (CLL) and diffuse large B-cell lymphoma (DLBCL) are blood cancers which affect white blood cells called B-cells.

Differences between people with these diseases and differences between the cancer cells within each person mean current treatments sometimes don’t work. It is therefore important to develop ways to identify the right drug/drug combination for each individual person.

The project

Both CLL and DLBCL cancer cells have features that cause cancer cells to grow out of control and stop them from being destroyed by our body’s immune system. These features can be activated in different ways, creating different patterns known as ‘fingerprints’.

Professor Pepper and his team believe identifying and categorising these ‘fingerprints’ is key to understanding the best drugs to target these blood cancers with.

He wants to use mathematical modelling and conduct experiments to understand the impact of these different ‘fingerprints’ in CLL and DLBCL cells.

This will allow him to identify the best drug or combination of drugs to treat these diseases for each individual person

The future

If successful, this research will lead to better understanding of the specific features that cause cancer cells to grow out of control and stop them from being destroyed by our body’s immune system. This could lead us to developing a more personalised approach to treating CLL and DLBCL.