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Most people with CML have a protein called BCR-ABL switched on inside their cells which causes the growth of cancer cells. In this project, Dr Oberoi and her team want to understand more about this protein to see if they can find ways to switch it off.

Dr Jasmeen Oberoi stood smiling in the lab wearing a Blood Cancer UK lab coat.

Dr Jasmeen Oberoi

Project information

Lead researcher

Dr Jasmeen Oberoi, University of Sussex

Research team
  • A team at University of Sussex
Related conditions
  • Chronic myeloid leukaemia (CML)
Research type
  • Non-clinical
Region
  • South East
Grant awarded
  • Project Grant
Status
Ongoing
Funding award date
January 2023
Amount awarded

£240,000

The challenge

Chronic myeloid leukaemia (CML) is a slow growing type of blood cancer that can be treated, but currently cannot be cured.

Around 700 people are diagnosed with CML each year in the UK. Most people with this type of blood cancer have a protein called “BCR-ABL” switched on inside their cells, which causes the cells to divide and grow uncontrollably.

Understanding more about this protein could help us create new treatments for the disease.

The project

Dr Jasmeen Oberoi and her team want to build a 3D model of the BCR-ABL protein to understand more about how it works and how it causes cancer. They want to look at the shape of this protein and how it interacts with other molecules in the cell.

By detailing the interactions, the team hope to find ways they might be able to block these interactions and stop the cancer cells from growing.

The future

The hope is that this project will lead to a better understanding of BRC-ABL, and how it works with other molecules inside cells to cause cancer cells to grow.

This will mean the team can go on to look at new ways to stop this protein from working, which could lead to new treatments being developed for CML.

Dr Jasmeen Oberoi working in the lab, wearing a Blood Cancer UK lab coat.

Dr Jasmeen Oberoi working in the lab

Help us beat blood cancer by funding a research project

  • Could help eight people newly diagnosed with blood cancer understand their condition.
  • Could help researchers study blood cancer cells to develop new treatments and improve early diagnosis.
  • Could help scientists identify genetic patterns in tumour samples to better understand how genes contribute to the development of blood cancer.
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