Click or press Enter to skip navigation. Accessibility Statement
Thanks. We've saved your preferences.
You can update your contact preferences at any time in the Keep in touch section of Your Dyson. If you have a Your Dyson account, you can log in below to manage your contact options.
Feature Motif
University of BC team engineered sensored catheter to monitor the site of IV delivery

Video Transcript

Open video transcript

Specialized catheter to prevent neonatal IV infiltration wins 2020 National James Dyson Award

September 17 2020

September 17, 2020 – Catheters are a common tool among medical professionals and are used to dispatch fluids into the human body. Although a simple practice, 23% of adults and 70% of neonatal patients experience IV infiltration¹, which occurs when a catheter is dislodged in the vein or improperly placed causing fluids and medications to leak into the surrounding tissue.

A group of six University of British Columbia engineering students discovered the problem and prevalence of IV infiltration specifically among vulnerable populations like neonatal or elderly patients after interviewing over 70 biomedical experts including professors, industry leaders, and clinicians. To solve this problem the students leveraged their varied educational backgrounds in biomedical, software and mechanical engineering to develop Attentiv Catheter: a new type of catheter that uses bioelectric properties to monitor IV delivery and automatically signal when infiltration is detected. This innovation earned them the top spot in the 2020 national James Dyson Award in Canada.

Attentiv uses a small sensor that differentiates between blood and tissue to localize the position of the catheter and determine if it has correctly entered the vein or is outside the vein, one of the causes of infiltration. When infiltration is sensed, an alert is transmitted through a wire mounted along the IV tubing and broadcasted to a monitor, alerting the physician or nurse. The onboard algorithm uses the average of the bioimpedance signal to look for spikes or irregularities that may indicate infiltration.

The team identified the neonatal ICU as the group that most requires a solution such as theirs, as newborn babies can be the most vulnerable to IV infiltration. The sensor is small enough for infants with fragile conditions and can be easily integrated into a nurse’s regular routine.

  • Kevin Ta says: “When researching other existing technologies, we found that most use a patch sensor that is applied to the skin. This was not an attractive option to nurses as it would be another item to place on the baby in the NICU. We wanted to ensure our technology was integrated right into the catheter for a more simplified approach that would resolve some of those concerns.”

    Jessica Bo says: “In addition to advancing our project, we also want to start a paradigm shift on how we view IV safety. Just because these incidents aren’t as common with adults, they still are happening and causing pain for patients and additional time spent for nurses.”

To measure the usability of Attentiv, the team plans to mock-up the workflow of nurses while they do routine procedures. This will help indicate if Attentiv can seamlessly fit into a nurse’s schedule and inform the next stage of development with the user interface. The team is aware that hospital nurses can already experience “alarm fatigue,” based on the many alert systems already in place in their environment. With this in mind, they are exploring ways to integrate their monitor into existing systems or use visual alarms to update the user.

Following in-class schooling being halted due to the global pandemic in March, the Attentiv team has shifted priorities from physical development to drafting a research paper focusing on their design, testing and iterative development for a medical journal.

As the national winner for the James Dyson Award, the Attentiv team has won $3,000 towards their project and will progress to the international stage of the JDA. Click here to find out more about Attentiv in an interview video.

National Runners-Up


Problem: Mobile cameras are unable to achieve high quality zoomed photos, as the lenses cannot use physical movement to zoom without image quality loss, as seen with conventional cameras.

Solution: Instead of a lens made with curved glass or plastic as seen on regular mobile cameras, Scope has engineered a lens using liquid crystals confined in a cell. When voltages are applied to the crystals it allows for the lens’ optical wavefront to be dynamically shaped without physical movement, enabling a lossless camera zoom.


Problem: When ski and snowboarders enter terrain parks, it’s difficult to see the landing area after a jump which can cause dangerous accidents.

Solution: SmartPatrol is a battery-powered pole mounted system that automatically monitors for hazards within dangerous areas of terrain parks and alerts uphill riders when it isn’t safe to continue down the hill. It collects video and statistics on incidents so operators can design safer terrain parks.

Dyson Newsroom

The latest news from Dyson

  • 1 Helm, R. E., Klausner, J. D., Klemperer, J. D., Flint, L. M., & Huang, E. (2015). Accepted but Unacceptable. Journal of Infusion Nursing, 38(3), 189-203. doi:10.1097/nan.0000000000000100 Mccullen, K. L., & Pieper, B. (2006). A Retrospective Chart Review of Risk Factors for Extravasation Among Neonates Receiving Peripheral Intravascular Fluids. Journal of Wound, Ostomy and Continence Nursing, 33(2), 133-139. doi:10.1097/00152192-200603000-00006.