news

Researchers find new genetic target for NSCLC

Posted: 23 March 2016 | Victoria White | No comments yet

Researchers have identified mutations in NSCLC that are key to tumour growth, offering a new way to differentiate patients with the disease…

lung-cancer-cells

Researchers from Manchester University have identified mutations in lung cancer that are key to tumour growth, offering a new way to differentiate and treat some patients with the disease.

Non-small cell lung cancer (NSCLC) makes up around 8 in 10 cases of lung cancer but the outlook is bleak for many patients, who are often diagnosed at a late stage. For some there is the promise of targeted ‘smart’ drugs, but scientists have so far struggled to identify which targets to hit in the majority of patients.

Despite an ever-increasing amount of genetic data revealing a host of mutations in NSCLC cells, there is much work to do in order to pinpoint which are vital for tumour survival.

 

Access your FREE copy

 


Biomarkers aren’t just supporting drug discovery – they’re driving it

FREE market report

From smarter trials to faster insights, this report unpacks the science, strategy and real-world impact behind the next generation of precision therapies.

What you’ll unlock:

  • How biomarkers are guiding dose selection and early efficacy decisions in complex trials
  • Why multi-omics, liquid biopsy and digital tools are redefining the discovery process
  • What makes lab data regulatory-ready and why alignment matters from day one

Explore how biomarkers are shaping early drug development

Access the full report – it’s free!

 

The team focused on a pair of genes known as ABL1 and ABL2, which are mutated or amplified in up to 10% of lung cancer cases.

Dr John Brognard, who led the study, said: “Drugs that block the activity of the ABL proteins have been used to successfully treat leukaemia patients, where ABL is overactive. However, until now, the role of ABL1 and ABL2 in other cancer types hasn’t really been explored.”

His group looked at lung cancer cells in the lab and showed that mutations in ABL1, but not ABL2, were necessary for their survival. By using an ABL inhibitor – imatinib – they could block tumour growth in cancer cells that harboured an ABL1 mutation.

“Drugs like imatinib are already commercially available. This means that we now have an extra ready-made tool for the treatment of lung cancer – we just need to identify which patients will benefit by doing some additional tests,” added Dr Brognard.

Related topics

Related conditions

Related organisations

Leave a Reply

Your email address will not be published. Required fields are marked *