UC Berkeley researchers found that an ultra-thin TiO₂ film less than 3 nm thick becomes ferroelectric. This enables faster and more energy-efficient chips for wearable electronics without changing the manufacturing process.
Scientists at Immanuel Kant Baltic Federal University have created a flexible polymer film with magnetic nanoparticles that increases sensor sensitivity by 1.5 times. The slow drying technology reduces the cost of sensors for smartwatches and cars. Learn about the breakthrough!
Scientists created a p-n diode the size of a nanowire, combining photodetection, data storage, and processing. Learn how this will change electronics for IoT and wearable devices. Read the analysis of implications.
Apple is preparing smart glasses, a desktop robot, HomePad, a wearable pendant and other new products. Learn about the strategy to expand the ecosystem and reduce dependence on iPhone by 2027.
Meta has confirmed the development of a wearable AI device. We analyze the 'octopus' strategy, Hatch subscription, competition with Apple, and privacy risks. Read the details.
Analog USC chip mimics the brain, learns without batteries and code. Revolution for wearable devices and implants. Learn how the self-learning memristor works.
Corporate Wellbeing 2026: How Sleep and Stress Data Change Insurance Premiums and Careers. Analysis of Risks and Hidden Benefits for Business. Find Out Who Benefits.
Fitness apps are restructuring nutrition and workouts to cycle phases in real time. Learn how this gives +30% energy and changes the industry. Read the analysis.
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Wearable Electronics | Journal | ScienceDirect.com by Elsevier