Lifeboat Foundation: Safeguarding Humanity
Toggle light / dark theme

Blog

Category: wearables – Page 27

Dr. Cody reveals private conversations about BCI and experience at CES2023.

►►►Mendi Affiliate Link (free shipping, 15% off Pre-Black Friday before 24Nov): https://www.mendi.io/?discount=mendiwithdrcody.
►►►Muse Headband (Black Friday 20% Off Dr. Cody Discount (applied at checkout 10Nov-23Nov applied at checkout)): https://mbsy.co/68Mq9h.
►►►FocusCalm $25 off: Enter “DrCody” at discount checkout: https://www.focuscalm.com.
►►►NeoRhythm Affiliate link: https://tidd.ly/3q8wNom (10% discount code is “drcody” at checkout)
►►►Start a Myndlift Clinic: $200 discount promo code-RFCZECCJ
►►►Neurosity Affiliate link https://neurosity.co/cody.

►►► GET YOUR FREE MEDITATION GUIDE HERE: https://bit.ly/2XIRDNa.

►►► INSTAGRAM (Behind The Scenes with Cody Rall MD): https://www.instagram.com/codyrall_techforpsych/

Cody Rall, M.D., is a United States Navy trained Psychiatrist who specializes in neurotechnology wearables. He is a co-founder of Stanford Brainstorm, the world’s first academic laboratory dedicated to transforming brain health through entrepreneurship.

Dr. Rall also served as a board member of the psychiatry innovation lab, an annual national competition at the American Psychiatric Association that works as an incubator for groups developing technological solutions to problems in mental health care. He is the founder of Techforpsych, a media and relations company that covers advancements in technology related to neuroscience.

Continue reading “A Billionaire and Brain Computer Interface: Behind the Scenes at Consumer Electronic Show 2023” | >

A multi-disciplinary team of researchers has developed a way to monitor the progression of movement disorders using motion capture technology and AI.

In two ground-breaking studies, published in Nature Medicine, a cross-disciplinary team of AI and clinical researchers have shown that by combining human data gathered from wearable tech with a powerful new medical AI technology they are able to identify clear movement patterns, predict future disease progression and significantly increase the efficiency of clinical trials in two very different rare disorders, Duchenne muscular dystrophy (DMD) and Friedreich’s ataxia (FA).

DMD and FA are rare, degenerative, that affect movement and eventually lead to paralysis. There are currently no cures for either disease, but researchers hope that these results will significantly speed up the search for new treatments.

Read more | >

Summary: Combining new wearable technology and artificial intelligence, researchers are better able to track motion and monitor the progression of movement disorders.

Source: Imperial College London.

A multi-disciplinary team of researchers has developed a way to monitor the progression of movement disorders using motion capture technology and AI.

Read more | >

The University of Singapore has invented a VR Glove that allows you to feel objects in the metaverse! The technology includes pressurized fingertips and restricted motion that mimics the real-life sensation of picking up objects. The goal is to assist medical professionals to practice in Virtual Reality (but we can see how these would make for some pretty incredible immersive gameplay). Production will begin over the next few years.

The VR glove is an important advancement in wearable tech, as it is a fully untethered haptic system. With this super fast feedback loop, the glove encounters the metaverse in what is essentially real-time. So, that means minimal to no lag for users. Additionally, the gloves are lighter and more affordable than the gloves that are currently on the market. This makes The National University of Singapore’s HaptGlove all the more impressive as a piece of wearable tech.

The glove was developed by The National University of Singapore for use with trainees at the National University Health System. Specifically, users will be able to use the technology to grasp surgical devices or check the pulse of a patient. Furthermore, the haptic system inside the glove should resemble the feeling of an object on your fingertips, providing real-time feedback. This is an important moment for the medical field that could have serious impact, as VR becomes a testing ground for future health tech. It’s interesting to note this development alongside other trends, like the push towards Web5.

Read more | >

Firefighting may look vastly different in the future thanks to intelligent fire suits and masks developed by multiple research institutions in China.

Researchers published results showing breathable electrodes woven into used in fire suits have proven to be stable at temperatures over 520ºC. At these temperatures, the fabric is found to be essentially non-combustible with high rates of thermal protection time.

The study was published on January 12, 2023 in Nano Research.

Read more | >

Interest in gallium lagged in the past, partly because of the unfair association with toxic mercury, and partly because its tendency to form an oxide layer was seen as a negative. But with increased interest in flexible and, especially wearable electronics, many researchers are paying fresh attention.

To make bendable circuits with gallium, scientists form it into thin wires embedded between rubber or plastic sheets. These wires can connect tiny electronic devices such as computer chips, capacitors and antennas. The process creates a device that could wrap around an arm and be used to track an athlete’s motion, speed or vital signs, for instance, says Carmel Majidi, a mechanical engineer at Carnegie Mellon University.

Read more | >

What percentage of your battery is used…

AMHERST, Mass. – 5G wireless technology is just starting to take off worldwide, but a new study is already speculating on the future of 6G! Researchers from the University of Massachusetts-Amherst say, unlike older technology, 6G could end up using people as antennas.

Specifically, 6G telecommunications could possibly take advantage of Visible Light Communication (VLC), which is like a wireless version of fiberoptics. Right now, fiberoptics use incredibly thin glass or plastic strands to transmit information on flashes of light. These wires are extremely small, but also extremely fragile.

The UMass Amherst team says they have created a low-cost and innovative way of harvesting waste energy from VLC — using the human body as an antenna. Their invention can recycle waste energy to power wearable devices and possibly larger electronics as well.

Read more | >

German Bionic.

German Bionic was a pioneer in the field of wearable suits when it became the first firm to introduce connected exoskeletons for workplaces. The suit supports users in lifting movements and prevents poor posture. The award-winning Cray X exoskeleton, which is featured in the CES 2023 “Best of Innovation” (Wearable Technologies) category, will be available for demonstrations at the event from January 5–8.

Read more | >

A new smart skin developed at Stanford University might foretell a day when people type on invisible keyboards, identify objects by touch alone, or allow users to communicate by hand gestures with apps in immersive environments.

In a just-publish paper in the journal Nature Electronics the researchers describe a new type of stretchable biocompatible material that gets sprayed on the back of the , like suntan spray. Integrated in the mesh is a tiny electrical network that senses as the skin stretches and bends and, using AI, the researchers can interpret myriad daily tasks from hand motions and gestures. The researchers say it could have applications and implications in fields as far-ranging as gaming, sports, telemedicine, and robotics.

So far, several promising methods, such as measuring muscle electrical activities using wrist bands or wearable gloves, have been actively explored to enable various hand tasks and gesturing. However, these devices are bulky as multiple sensory components are needed to pinpoint movements at every single joint. Moreover, a large amount of data needs to be collected for each user and task in order to train the algorithm. These challenges make it difficult to adopt such devices as daily-use electronics.

Read more | >

“This shows that we must factor the gut microbiome into our understanding of how nanomaterials affect the immune system,” said the paper’s corresponding author Bengt Fadeel, professor at the Institute of Environmental Medicine, Karolinska Institutet. “Our results are important for identifying the potential adverse effects of nanomaterial and mitigating or preventing such effects in new materials.”

ALSO READ: Researchers reveal tomatoes’ health benefits to gut microbes

Graphene is an extremely thin material, a million times thinner than a human hair. It comprises a single layer of carbon atoms and is stronger than steel yet flexible, transparent, and electrically conductive. This makes it extremely useful in a multitude of applications, including in “smart” textiles equipped with wearable electronics and as a component of composite materials, to enhance the strength and conductivity of existing materials.

Read more | >