News

Peripheral neuromodulation stimulator (PNS) implantation for treatment of intractable headache

Dr. Xiang Qian and Dr. QiLiang Chen demonstrate the feasibility of a minimally invasive PNS technique that provides reduction in headache pain for a sustained time, even after the device is removed.

February 2025

https://mailchi.mp/d130ccb88695/ewear-newsletter-february-021325

Prediction of metabolic subphenotypes of Type 2 diabetes via continuous glucose monitoring (CGM) and machine learning

Prof. Michael Snyder, Prof. Tracey McLaughlin, Dr. Ahmed Metwally et al have developed algorithms that can parse 3 of the 4 most common Type 2 diabetes subtypes using data from CGM devices.

January 2025

https://mailchi.mp/cfbd2367e242/ewear-newsletter-january-011625

Design considerations and fabrication protocols of high-performance intrinsically stretchable transistors and integrated circuits

Prof. Zhenan Bao et al provide a comprehensive, detailed description of protocols, including design principles, material preparation, fabrication processes, and troubleshooting, to foster further advancements in stretchable electronics.

December 2024

https://mailchi.mp/5866cf6cdf65/ewear-newsletter-december-120424

November 2024

https://mailchi.mp/dad8b04ff12f/ewear-newsletter-november-112124

Reconstructive metaverse: Collaboration in real-time shared mixed reality (MR) environments for microsurgical reconstructionA wearable hydraulic shock absorber with efficient energy dissipation

Prof. Arash Momeni, Prof. Bruce Daniel et al demonstrate, for the first time, surgical preplanning sessions using MR headsets, in which a surgeon and a remotely located physician trainee interact with images of patient vasculature and mark key blood vessels for the operation.

October 2024

https://mailchi.mp/c136a218757b/ewear-newsletter-october-101624

Aptamer–antibody chimera sensors for sensitive, rapid, and reversible molecular detection in complex samplesA wearable hydraulic shock absorber with efficient energy dissipation

Prof. H. Tom Soh, Prof. Michael Eisenstein et al design and demonstrate programmable antibody and DNA aptamer switches that are 300-fold more sensitive and could lead to continuous sensing of analyte concentrations in interstitial fluid.