Lifeboat Foundation

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The consumer version of Google Glass smart wearable probably won’t be coming to the market anytime soon, but it seems like the project is far from dead. Namely, one of the startups which came to being after Google originally revealed its hi-tech headset several years ago is now raising new capital in order to bring Google’s optical head-mounted display into more hospitals and other health care facilities. The company in question is Augmedix, one of the ten official “Google Glass for Work” partners. Its main activity is developing software for wearable devices utilized in the medical industry, i.e. co-developing inventions which should make doctors’ lives easier. As Augmedix’s CEO Ian Shakil puts it, the doctors are “engaging with patients in front of them” while his company’s inventions are taking care of the “burdensome work in the background”.

Augmedix managed to raise $17 million of strategic investment capital from five institutions: TriHealth Inc., Sutter Health, Catholic Health Initiatives, Dignity Health, and a fifth, yet unnamed entity. This is the second round of funding the Silicon Valley company managed to secure in just over a year after raising $16 million in 2015. In total, the groups which financed Augmedix’s endeavors represent more than 100,000 health care providers. Naturally, the company can’t yet aim to deliver 100,000 of smart wearables designed for the medical industry, but it’s slowly getting there. Specifically, it’s currently providing equipment and services to hundreds of physicians and surgeons and is hoping to do the same with “thousands” more by 2017. No concrete figures have been provided by Augmedix, though the startup did confirm that it’s currently achieving a “multi-million dollar revenue” on a yearly basis.

Continue reading “New Funding Could Bring Google Glass To More Hospitals” »

https://youtube.com/watch?v=DF7OvoHzL8I

While Google works to bring a polished Glass device to market, wearables startup Innovega is taking head-mounted displays a step further: contact lenses that interact with full HD glasses.

They deserve it too.

X2 Biosystems has received the Society for Brain Mapping and Therapeutics (SBMT) 2016 Pioneer in Healthcare Technology Innovations Award for developing its next-generation head impact measurement sensor technology, the company said.

X2´s “X-Patch” wearable impact sensor has become widely deployed and tested head impact monitoring device, used in a continually expanding range of athletic activities from football (youth, high school, collegiate, pro) to hockey, soccer, lacrosse, rugby, Australian rules football, baseball, field hockey, wrestling, boxing, taekwondo, mixed martial arts, skiing and BMX cycling.

The X-Patch is also being actively evaluated for use in military training applications.

Continue reading “X2 Biosystems awarded” »

Nthing new; nice to see more folks waking up.

We’re moving beyond just prosthetics and wearable tech. Soon, we’ll all by cyborgs in one way or another.

From The Six Million Dollar Man to Inspector Gadget to Robocop, humans with bionic body parts have become commonplace in fiction. In the real world, we use technology to restore functionality to missing or defective body parts; in science fiction, such technology gives characters superhuman abilities. The future of cyborgs may hinge on that distinction.

Continue reading “Cyborgs Aren’t Just For Sci-Fi Anymore” »

University of Tokyo researchers have created an ultrathin and ultraflexible organic e-skin that supports PLED and OLED displays.

Researchers from the University of Tokyo have created a protective layer of organic material that’s ultrathin and ultraflexible. And the have demonstrated the material’s usefulness by making an OLED display that’s air-stable. This opens the possibility of developing better electronic skin displays, the next major leap in wearable technology.

Continue reading “New Remarkably Thin E-Skin Turns Your Body Into a Walking Display” »

Imagine shirts that act as antennas for smartphones or tablets, workout clothes that monitor fitness level or even a flexible fabric cap that senses activity in the brain!

All this will soon be possible as the researchers working on wearable electronics have been able to embroider circuits into fabric with super precision — a key step toward the design of clothes that gather, store or transmit digital information.

“A revolution is happening in the textile industry. We believe that functional textiles are an enabling technology for communications and sensing and one day, even for medical applications like imaging and health monitoring,” said lead researcher John Volakis from Ohio State University.

Continue reading “Clothes that Transmit Digital Data Are Coming” »

The transistor is the most fundamental building block of electronics, used to build circuits capable of amplifying electrical signals or switching them between the 0s and 1s at the heart of digital computation. Transistor fabrication is a highly complex process, however, requiring high-temperature, high-vacuum equipment.

Now, University of Pennsylvania engineers have shown a new approach for making these devices: sequentially depositing their components in the form of liquid nanocrystal “inks.”

Their new study, published in Science, opens the door for electrical components to be built into flexible or wearable applications, as the lower-temperature process is compatible with a wide array of materials and can be applied to larger areas.

HUGE deal for wearables and biomed technologies.

Researchers from the University of Illinois at Urbana-Champaign have demonstrated a new approach to modifying the light absorption and stretchability of atomically thin two-dimensional (2D) materials by surface topographic engineering using only mechanical strain. The highly flexible system has future potential for wearable technology and integrated biomedical optical sensing technology when combined with flexible light-emitting diodes.

“Increasing graphene’s low light absorption in visible range is an important prerequisite for its broad potential applications in photonics and sensing,” explained SungWoo Nam, an assistant professor of mechanical science and engineering at Illinois. “This is the very first stretchable photodetector based exclusively on graphene with strain-tunable photoresponsivity and wavelength selectivity.”

Continue reading “Crumpling approach enhances photodetectors’ light responsivity” »

Nanoengineers at the University of California San Diego have developed tiny molecular robots (pictured) that could help to extend the life of delicate circuits and wearable technology.