Menu
Close
Sign up for NPL updates
Close
Sign up for NPL updates

Receive regular emails from NPL to get a glimpse of our activities and see how our experts are informing and influencing scientific debate

  • Home
  • News
  • NPL is working to improve breast cancer diagnosis

NPL is working to improve breast cancer diagnosis

New technique developed at NPL has the potential to significantly improve breast cancer outcome

3 minute read

Scientists at NPL have demonstrated the first in-person measurements of breast tissue using an innovative new detection technique, which has the potential to significantly improve breast cancer outcomes by aiding in the earlier diagnosis and treatment of the disease.The technique works by transmitting ultrasonic waves through the breast which are then detected by a new type of sensor resulting in maps which shows how much ultrasound is lost in the tissue.

Using the new technique, the team at NPL conducted a study measuring the breast tissue of 12 nominally healthy volunteers aged between 19 and 65 years old. The study indicates that the relatively simple technique could be applied as a robust method for assessing the breast composition and provides encouraging results which can be used for anything from breast ultrasound scanner design to image reconstruction improvements.

The results of the study were published in August by the Institute of Electrical and Electronic Engineers (IEEE) and are available to download via the IEEE Explore online portal here.

Breast cancer is the most diagnosed cancer in the UK and is the second most common cause of cancer mortality in women, with around 11,000 fatalities per year in the UK.Through the National Breast Screening programme, 2.5 million women are annually invited for X-ray mammography, but this technique has issues particularly with younger women whose breast density is high. Breasts with high mammographic density appear cloudy in X-ray screening (see image) and this can lead to cancerous breast lesions being more difficult to detect.

Breast density has also been shown to be a significant independent breast cancer risk factor. The charity Breast Cancer Now estimates there are 700,000 women in the UK with high breast density that puts them at increased risk of developing breast cancer.

The analysis of this study explains that the technology - when in a fully developed medical device - could meet an existing requirement for a relatively simple method for assessing the properties of breast tissue, particularly breast density. In comparison to X-ray mammography, this new technology is less invasive, more comfortable and, completely safe as it eliminates risks associated with exposure to ionising radiation.

NPL has been working for many years on applying its metrology expertise to support collaborative research and development within the healthcare system.  From pioneering ultrasound breast imaging system that improves cancer outcomes to research supporting the effectiveness and regulatory compliance of clinical ultrasound, improving methods of breast cancer diagnosis has been a focus for NPL’s work.  The team plans to conduct further in-person studies to compare measurements from their research platform to conventional methods of measuring breast density.

Daniel Sarno, Senior Research Scientist, NPL said: “New ultrasound technologies are providing unique solutions to many longstanding challenges in healthcare. Over the last decade, there have been growing calls to improve the efficiency and effectiveness of breast screening programme – particularly in the aftermath of the COVID-19 pandemic. The ultrasound technology breakthrough made at NPL will enable clinicians to better distinguish different soft tissue types through traceable measurement, with applications in the breast for non-invasive breast density assessment, breast cancer diagnosis and therapy treatment tracking. While still in the research phase, we are encouraged by our in-person results and excited about the technology journey from benchtop to bedside.”

 

Find out more about ultrasound

05 Oct 2022