University of California, Berkeley engineers have developed wireless “neural dust” sensors that can monitor and record electromyogram (EMG) and electroneurogram (ENG) signals from muscles and peripheral nerves. This technology opens up possibilities for bioelectronic methods to stimulate the immune system, reduce inflammation, treat disorders like epilepsy, and improve neural control of prosthetics. The neural-dust sensors use ultrasound technology to power the sensors and read out measurements, making them more versatile and less invasive than traditional implantable devices. The researchers are working on making the sensors even smaller and more durable for long-term use. This research has potential applications in medical technology, neuroscience, and bioelectronics.
Signal | Change | 10y horizon | Driving force |
---|---|---|---|
Ultrasonic wireless ‘neural dust’ sensors developed | Development of wireless sensors for real-time monitoring | More advanced and widespread use of wireless sensors for various medical applications | Advancement in bioelectronic medicine and desire for non-invasive monitoring |
Electroceuticals using neural dust technology | Use of bioelectronic methods to monitor and treat disorders | Improved treatment options for epilepsy and neural control of prosthetics | Desire for non-invasive treatment options and enhanced prosthetic control |
Ultrasound technology used to power and read measurements | Use of ultrasound instead of radio waves for medical applications | Increased use of ultrasound technology for medical purposes | Ultrasound’s ability to penetrate the body and its well-developed use in hospitals |
Implantation of neural dust motes in the body | Implantation of wireless sensors for various medical purposes | More widespread use of implantable sensors for monitoring and treatment | Advancements in sensor technology and desire for non-invasive monitoring |
Miniaturization of neural dust motes and expansion of detection capabilities | Smaller, more advanced and versatile neural dust motes | Highly miniaturized sensors with expanded capabilities for monitoring non-electrical signals | Advancements in sensor technology and desire for more comprehensive monitoring capabilities |
Research supported by DARPA’s ElectRx program | Support for research on interface technologies for biosensing and neuromodulation | Advancements in interface technologies for chronic use in biosensing and neuromodulation | Desire for improved therapeutic methods for specific peripheral nerves. |