Scientists Develop Implantable Biosensor That Operates Without Batteries

The chip could help sports professionals monitor movements assist in rapid improvements, or enable caregivers to help monitor people struggling with dementia remotely

Scientists from the University of Surrey have unveiled a new biodegradable motion sensor. This could provide new avenues for the use of implanted nanotechnology in sports medicine in the future. It could help sports professionals monitor movements assist in rapid improvements, or enable caregivers to help monitor people struggling with dementia remotely.

In a paper published by Nano Energy, a team from Surrey's Advanced Technology Institute (ATI), in partnership with Kyung Hee University in South Korea, detail how they developed a nano-biomedical motion sensor which can be paired with AI systems to recognise movements of distinct body parts.

Eliminates The Need For Power Source

The ATI's technology builds on its previous workaround triboelectric nanogenerators (TENG), where researchers used the technology to harness human movements and generate small amounts of electrical energy. Combining the two means self-powered sensors are possible without the need for chemical or wired power sources.

Exercise
Representational Picture Pixabay

In their new research, the team from the ATI developed a flexible, biodegradable and long-lasting TENG from silk cocoon waste. They used a new alcohol treatment technique, which leads to greater durability for the device, even under harsh or humid environments.

Immense Potential

Dr. Bhaskar Dudem, project lead and Research Fellow at the ATI, said: "We are excited to show the world the immense potential of our durable, silk film based nanogenerator. It's ability to work in severe environments while being able to generate electricity and monitor human movements positions our TENG in a class of its own when it comes to the technology."

Professor Ravi Silva, Director of the ATI, said: "We are proud of Dr Dudem's work which is helping the ATI lead the way in developing wearable, flexible, and biocompatible TENGs that efficiently harvest environmental energies. If we are to live in a future where autonomous sensing and detecting of pathogens is important, the ability to create both self-powered and wireless biosensors linked to AI is a significant boost."

(With inputs from agencies)

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