
Nanotechnology: injectable liquid retina prosthesis
Researchers have developed an artificial liquid retinal prosthesis to counteract the effects of diseases such as retinitis pigmentosa and age-related macular degeneration.
Researchers have developed an artificial liquid retinal prosthesis to counteract the effects of diseases such as retinitis pigmentosa and age-related macular degeneration.
A photonics tech company from Vilnius are on their path to solve the 50-year-old task of making non-invasive blood analysis possible.
New contact lenses allow to correct vision, monitor glucose and medical conditions.
Scientists have designed tiny optical sensors that open the door to developing a wearable device that allows doctors to medically diagnose people's health in real time.
A new method designs nanomaterials with less than 10-nanometer precision. It could pave the way for faster, more energy-efficient electronics.
Chemists have developed two new classes of materials in the field of nanomaterials: nano spheres and diamond slivers made of silicon and germanium.
Graphene could advance flexible electronics according to a Penn State-led international research team.
To enable the development of wearable devices that possess advanced ultraviolet detection functions, scientists have created a new type of light sensor that is both flexible and highly sensitive.
Engineers have developed a sweat-proof “smart skin” — a conformable, sensor-embedded sticky patch that reliably monitors a person’s health.
An ultra-thin, inflatable device that uses a combination of soft robotic fabrication techniques and microfluidics can be used to treat the most severe forms of pain without the need for invasive surgery.
Engineers have developed the smallest single-chip system that is a complete functioning electronic circuit - and implantable chip visible only in a microscope.
New optical elements that could revolutionize VR/AR glasses. At its heart is a nanophotonic optical element, which the developers call a metasurface.
Engineers at Duke University have developed the world's first fully recyclable printed electronics.
We spoke to wearables and medical device expert Professor John Rogers about the benefits, challenges, trends and innovation within the sector.
Advances in wearable devices have enabled e-textiles, which fuse lightweight and comfortable textiles with smart electronics, and are garnering attention as the next-generation wearable technology.
Researchers are aiming to improve wearables for medical applications and to enable the portable minicomputers to make more accurate measurements.
Researchers are developing technology to improve high-resolution bioimaging of structures and tissues located deep within the body.
Successful precision cancer diagnosis through an AI analysis of multiple factors of prostate cancer. Potential application of the precise diagnoses of other cancers by utilizing a urine test.
Researchers are making key advances with a new type of optical sensor that more closely mimics the human eye’s ability to perceive changes in its visual field.
Researchers have developed a color-sensitive, inkjet-printed, pixelated artificial retina model.
Scientists have cracked the conundrum of how to use inks to 3D-print advanced electronic devices with useful properties, such as an ability to convert light into electricity.
Engineers have developed a next-generation circuit that allows for smaller, faster and more energy-efficient devices – which would have major benefits for AI systems.
A tiny microsupercapacitor (MSC) that is as small as the width of a person's fingerprint and can be integrated directly with an electronic chip has been developed.
Researchers have developed a high-power, portable version of a device called a quantum cascade laser, which can generate terahertz radiation outside of a laboratory setting.
Researchers have created fundamental electronic building blocks out of tiny structures known as quantum dots and used them to assemble functional logic circuits.
The University of Surrey has unveiled a device with unique functionality that could signal the dawn of a new design philosophy for electronics, including next-generation wearables and eco-disposable sensors.
Researchers have developed a new approach to printed electronics which allows ultra-low power electronic devices that could recharge from ambient light or radiofrequency noise.
Researchers have developed ultrasensitive sensors that can detect microwaves with the highest theoretically possible sensitivity.
Researchers have designed and produced a smart electronic skin and a medical robotic hand capable of assessing vital diagnostic data.
A new class of medical instruments equipped with an advanced soft electronics system could improve the diagnoses and treatments of a number of cardiac diseases and conditions.
Researchers have created the first microscopic robots that incorporate semiconductor components, allowing them to be controlled with standard electronic signals.
Researchers have developed a new form of electronics known as “drawn-on-skin electronics,” allowing multifunctional sensors and circuits to be drawn on the skin with an ink pen.
The first demonstration of a fully print-in-place electronics technique is gentle enough to work on surfaces as delicate as human skin and paper.
Medical implants of the future may feature reconfigurable electronic platforms that can morph in shape and size dynamically.
Researchers reported the discovery of a multifunctional ultra-thin wearable electronic device that is imperceptible to the wearer.
Researchers developed a remote-controlled drug delivery implant the size of a grape that may help chronic disease management.
Artificial organs: researchers are developing a lithography method that relies on light sheet illumination and on special photosensitive hydrogels that are mixed with living cells.
Smaller than an M&M and thinner than a credit card, device can optimize treatment of neonatal jaundice, skin diseases, seasonal affective disorder and reduce risk of sunburns and skin cancer.
Researchers have fully 3D printed an image sensing array on a hemisphere, which is a first-of-its-kind prototype for a “bionic eye.”
Researchers have developed a ultrathin, elastic display that fits snugly on the skin.