Lifeboat Foundation

Michelle Khine is a professor of biomedical engineering at the University of California, Irvine. Nine months ago, her newborn son was hospitalized for complications during childbirth and was admitted to the neonatal intensive care unit (NICU). While in the NICU, her son was connected to several machines that were supplying oxygen and monitoring his breathing.

A biomedical engineering research team from the University of California has developed a new wearable respiratory sensor to monitor children with chronic pulmonary conditions. The design was built with inspiration from a favorite childhood toy, Shrinky Dinks.

Recently University of Glasgow developed a Graphene based E-Skin for prosthetic limbs. The research started with making a prosthetic arm that could sense even the minutest of pressure for gripping soft objects. It eventually yielded a prosthetic limb that was also self powering.

This was because of the development of Graphene based supercapacitors.

Continue reading “Solar Powered E-Skin for Prosthetic Limbs” »

Circa 2016

UNIVERSITY PARK, Pa. — Electronic materials have been a major stumbling block for the advance of flexible electronics because existing materials do not function well after breaking and healing. A new electronic material created by an international team, however, can heal all its functions automatically even after breaking multiple times. This material could improve the durability of wearable electronics.

Continue reading “Self-healing, flexible electronic material restores functions after many breaks” »

The portable, wearable peritoneal dialysis device by Singapore-based AWAK Technologies is intended for patients with end-stage renal disease as an alternative to long hours of connection to large dialysis machines.

A new way to harvest electricity from body heat could inspire new wearable devices that never need to be plugged in. The millivolts of electricity this thermoelectric technology produces mandates slim power usage from any electronics plugged in to its feed. However, the developers say there already are fitness trackers and medical monitors today that could work within their device’s power envelope. The new, wearable thermoelectric generator is also sourced from non-toxic and non-allergenic substances, making it a viable candidate for wearable technology.

Made with cotton, this generator harvests body heat to power wearable electronics.

Researchers have developed a new kind of sensor designed to let artificial skin sense pressure, vibrations, and even magnetic fields. Developed by engineers, chemists, and biologists at the University of Connecticut and University of Toronto, the technology could help burn victims and amputees “feel” again through their prosthetic skin.

“The type of artificial skin we developed can be called an electronic skin or e-skin,” Islam Mosa, a postdoctoral fellow at UConn, told Digital Trends. “It is a new group of smart wearable electronics that are flexible, stretchable, shapable, and possess unique sensing capabilities that mimic human skin.”

To create the sensor for the artificial skin, Mosa and his team wrapped a silicone tube with a copper wire and filled the tube with an iron oxide nanoparticle fluid. As the nanoparticles move around the tube, they create an electrical current, which is picked up by the copper wire. When the tube experiences pressure, the current changes.

Device made from flexible, inexpensive materials could power large-area electronics, wearables, medical devices, and more.

ASU Smartwatch is not only a wearable gadget, but a projection puts the “screen” on back of the hand, walls, or desktop etc.

A new wearable patch can monitor your health through your sweat.

Fitness and health trackers are everywhere, but most of them are limited to collecting data on your heartbeat, how much your moving and information you manually input to their paired apps.

That’s helpful if you’re trying to get in shape, but for people suffering from chronic conditions and diseases — like kidney disease or cystic fibrosis — more exact and frequent analyses could alert them to life-endangering changes.

Continue reading “Tiny skin patch the size of a dollar coin uses your sweat to measure health risks without a needle” »