
Printing wearable electronics for smart device applications
Researchers show how printed wearable electronics offer the advantage of flexibility and low cost.
Researchers show how printed wearable electronics offer the advantage of flexibility and low cost.
Researchers have improved an electronic sensor for fast detection of infectious diseases like COVID-19.
Researchers have reported the first measurements of the ultra-low-friction behavior of a material known as magnetene.
Ubotica has developed a deep learning-based solution for detecting the presence of diabetic retinopathy indicators in retinal images.
A process turns clothing fabric into biosensors which measure a muscle’s electrical activity as it is worn.
A microfluidic chip takes up a water sample, adds the necessary chemicals and transports it to the detection site.
Wearables are becoming a trend in respiratory care and many products are being developed to monitor patients remotely. But how much can these tools really help clinicians?
Electronic skins will play a significant role in monitoring, personalized medicine, prosthetics, and robotics.
Scientists have created a 3D printing method that integrates functional and structural materials to print wearable.
A Purdue University team has come up with 3D body mapping technology to help treat organs and cells damaged by cancer and other medical issues.
Wearable sensor detects multiple chronic wound biomarkers to facilitate timely and personalised wound care.
In the last few years, mechanically assistive exosuits have started to see commercial deployment.
“Robotic” textiles could help patients recovering from postsurgery breathing changes.
The cane incorporaties sensing and way-finding approaches from robotics and self-driving vehicles.
A lightweight powered exoskeleton helps lower-limb amputees walk with much less effort.
Texas engineers innovated a first-ever hybrid sensing approach that allows the device to possess properties of the two predominant types of sensors in use today.
An electrical impedance tomography toolkit lets users design and fabricate health and motion sensing devices.
Single-crystal flake devices are so thin and defect-free, they might outperform existing components in quantum computers.
A new sensor material suitable for developing a rehabilitation glove.
Researchers are replicating the subtle folding of origami to create 3D printable technologies to aid in the fight against COVID-19.
An electronic “nose” is capable of detecting with 86% accuracy when a lung transplant is beginning to fail.
Engineers have developed a new way to create the sensation of physically interacting with holographic projections.
Graphene could advance flexible electronics according to a Penn State-led international research team.
A flexible carbon nanotube fibers can be incorporated into clothing to function as wearable health monitors.
New wireless diaper sensors powered by biofuel cell could help prevent diabetes and simplify long-term care.
Scientists have developed a bio-compatible implantable AI platform that classifies in real time healthy and pathological patterns in biological signals.
Future brain-computer interface systems employ a network of independent, wireless microscale neural sensors to record and stimulate brain activity.
Researchers have produced a low-cost device to detect SARS-CoV-2 with biosensors.
A new material that combines the flexibility of human skin with improved conductivity and tolerance of temperatures as low as -93 C.
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.
This overview introduces smart insulin delivery systems and more innovations that help patients and doctors guide decision-making in diabetes care.
Engineers developed a soft and stretchy ultrasound patch that can be worn on the skin to monitor blood flow through major arteries and veins deep inside a person’s body.
Researchers warn of the potential social, ethical, and legal consequences of technologies interacting heavily with human brains.
Engineers have developed a flexible strip that can be worn on a fingertip and generate small amounts of electricity when a person’s finger sweats or presses on it.
Conquering a chemical challenge to control the structure of a polymer opens a path to better biosensors.
Engineers have developed a sweat-proof “smart skin” — a conformable, sensor-embedded sticky patch that reliably monitors a person’s health.
Engineers have developed a method to transform existing cloth items into battery-free wearables resistant to laundry. These smart clothes are powered wirelessly through a flexible, silk-based coil sewn on the textile.
Researchers have used graphene to detect the SARS-CoV-2 virus in laboratory experiments. It could be a breakthrough in coronavirus detection, with potential applications in the fight against COVID-19 and its variants.
Researchers have developed a new low-cost method to help prevent life-threatening foot ulcers in diabetic patients
In a first, the digital fiber contains memory, temperature sensors, and a trained neural network program for inferring physical activity.
Researchers have developed a new material that can facilitate a near-perfect merger between machines and the human body for diagnostics and treatment.
Very thin layers of organic stabilizer residue in metal nanoparticle (MNP) inks are behind a loss of conductivity in 3D printed materials and electronic devices.
To help patients manage their mental wellness between appointments, researchers at Texas A&M University have developed a smart device-based electronic platform that can continuously monitor the state of hyperarousal, one of the signs of psychiatric distress.
New creation could give machines human-like sense of touch to better judge human intentions and respond to changes in the environment
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.
Researchers have developed ultrathin self-powered health patches that can monitor a user's pulse and blood pressure, which may lead to new flexible motion-based energy harvesting devices.
We spoke to wearables and medical device expert Professor John Rogers about the benefits, challenges, trends and innovation within the sector.
Scientists report preliminary results on a sweat sensor that acts as an early warning system for an impending cytokine storm, which could help doctors more effectively treat patients.
Engineers have created a tiny wireless implant that can provide real-time measurements of tissue oxygen levels deep underneath the skin.
Researchers from Penn State led two international collaborations to prototype a wireless, wearable transmitter while also improving the transmitter design process.
Scientists have developed AI-powered nanosensors that let researchers track various kinds of biological molecules without disturbing them.
BrainGate researchers demonstrated the first human use of a wireless transmitter capable of delivering high-bandwidth neural signals.
Researchers have developed a novel skin-mounted sticker that absorbs sweat and then changes color to provide an accurate, easy-to-read diagnosis of cystic fibrosis within minutes.
Researchers have developed clothing that uses special fibers to sense a person's movement via touch.
Researchers have uncovered a way to tap into the over-capacity of 5G networks, turning them into "a wireless power grid" for powering Internet of Things devices.
Researchers have developed a method to produce graphene-enhanced hydrogels with an excellent level of electrical conductivity.
Engineers use DNA nanotechnology to create highly resilient synthetic nanoparticle-based materials that can be processed through conventional nanofabrication methods.
Researchers have developed a wristband equipped with sensors to enable free-hand, intuitive working in VR that could be used in everyday applications.
Researchers have developed a thread made of conductive cellulose, which offers practical possibilities for electronic textiles.
Nanoscientists have developed adaptive microelectronics that can move independently according to sensor data and align themselves specifically for activities - possible applications in biomedicine and bioneural interfacing.
We spoke with Prof. Dominic Zerulla, whose company PEARlabs is developing an imaging technique that sets out to push the boundaries once more – by looking at in-vivo nano-scale processes in motion.
Nanoengineers have developed a "wearable microgrid" that harvests and stores energy from the human body to power small electronics.
The Fraunhofer Institutes project M³Infekt aims to develop a multi-modal, modular and mobile system of sensors for monitoring infectious diseases.
For the first time, the ear of a dead locust was connected to a robot that receives the ear’s electrical signals and responds accordingly.
Researchers took a step forward in the development of an armband that could track the heart’s electrical activity without requiring bulky wiring or sticky gel on the skin.
Researchers have developed a new soft tactile sensor with skin-comparable characteristics.
Covestro has developed a concept for wearable smart patches in cooperation with its partner accensors.
Scientists have developed a soft and nonirritating microfluidic sensor for the real-time measurement of lactate concentration in sweat.
Researchers tested the efficacy of eight commercial sleep trackers. The result: you snooze, you lose – at least with with some of them.
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.
By using 3D aerosol jet-printing to put perovskites on graphene, scientists have made X-ray detectors with record sensitivity that can greatly improve the efficiency and reduce the cost.
The Wyss Institute's eRapid electrochemical sensor technology now enables specific and multiplexed detection of blood biomarkers at low cost.
Engineers have developed a skin patch that can continuously track blood pressure and heart rate while measuring the wearer’s levels of glucose as well as lactate.
Researchers have constructed a 3D vision-guided artificial skin that enables tactile sensing with high performance, opening doors to innumerable applications in medicine.
Researchers have designed an on-chip printed 'electronic nose' that serves as a proof of concept for low-cost and sensitive devices to be used in healthcare.
Scientists have developed biodegradable displays that due to their flexibility and adhesion can be worn directly on the hand.
Researchers are developing a color-changing test strip that can be stuck on a mask and used to detect SARS-CoV-2 in a user’s breath or saliva.
A new type of ultra-efficient, nano-thin material could advance self-powered electronics, wearable technologies and even deliver pacemakers powered by heart beats.
An inexpensive yet highly sensitive wearable sensor holds promise for detecting early COVID-19 symptoms and monitoring heart disease.
Researchers have a volatile organic compound sensor that can effectively detect odors in gaseous form.
A chemical sensing chip could lead to handheld devices that detect trace chemicals as quickly as a breathalyzer identifies alcohol.
Transmitting sensory signals from prostheses to the nervous system helps leg amputees to perceive prosthesis as part of their body.
Researchers have demonstrated a novel multifunctional ultrathin contact lens sensor layer with transistors that may revolutionise the manufacture of smart contact lenses.
Researchers have developed a new range of nanomaterial strain sensors that are 10 times more sensitive when measuring minute movements, compared to existing technology.
A device could help scientists better understand the health benefits of outdoor lighting and lead to wearables that could nudge users to get more outdoor time.
A stretchable system that can harvest energy from human breathing and motion for use in wearable health-monitoring devices may be possible.
Researchers have developed a rapid, ultrasensitive test using a paper-based electrochemical sensor that can detect the presence of the virus in less than five minutes.
Researchers have examined how mobile technologies have been used in monitoring and mitigating the effects of the Covid-19 pandemic.
Researchers are developing solutions designed to enable the analysis of breath gas to assist with the diagnosis of disease.
A tiny new silicon-based lab-on-chip test could pave the way for cheap handheld infectious disease testing.
A material that mimics human skin in strength, stretchability and sensitivity could be used to collect biological data in real time.
Researchers developed a multimodal ion-electronic skin that distinguishes temperature from mechanical stimuli.
An ultrathin pressure sensor for the skin measures how fingers interact with objects to produce useful data for medical applications.
Point-of-care electrochemical sensors using revolutionary nanocarbon technology can rapidly test for opioid concentrations in the bloodstream.
Researchers at Cornell University have developed stretchable sensors that gives robots and VirtualReality a human touch.
Researchers reported they designed a flexible and implantable sensor that can monitor various forms of nitric oxide (NO) and nitrogen dioxide (NO2) gas in the body.
Scientists are researching salamanders unique superpower - they can regenerate their spinal cords and regain full functionality.
The supplier sector will showcase its expertise and innovative high-tech solutions for the medical technology industry.
Graphene has a vast variety of practical applications in the creation of new materials. But what exactly is graphene and what makes it so special?
A wearable electronic device that’s 'really wearable” - a stretchy and fully-recyclable circuit board - can heal itself, much like real skin.
A novel e-skin, called TRACE, performs five times better than conventional soft materials. It is suitable for measuring blood flow for pulse diagnosis and helping robots to 'feel' the texture of surfaces.
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 designed a skin-like device that can measure small facial movements in patients who have lost the ability to speak.
Researchers have harvested kinetic energy that is produced by a person as they move around.
Using a brain-inspired approach, scientists have developed a way for robots to have the AI to recognise pain and to self-repair when damaged.
A new device inspired by an octopus’s sucker rapidly transfers delicate tissue or electronic sheets to the patient, overcoming a key barrier to clinical application.
Researchers have 3D printed unique fluid channels at the micron scale that could automate production of diagnostics, sensors, and assays used for a variety of medical tests and other applications.
Researchers have developed ultrasensitive sensors that can detect microwaves with the highest theoretically possible sensitivity.
Researchers used 3D printing techniques to make electronic fibres, each 100 times thinner than a human hair, creating sensors beyond the capabilities of conventional film-based devices.
Self-powered biosensors that could one day lead to wearable devices that do not need to be recharged, or even sensors that are powered by the very bodily process they are designed to monitor.
Researchers have designed and produced a smart electronic skin and a medical robotic hand capable of assessing vital diagnostic data.
Although true “cyborgs” — part human, part robotic beings — are science fiction, researchers are taking steps toward integrating electronics with the body.
Researchers explain how computer scientists and clinicians are trying to reduce fatal medical errors by building “ambient intelligence” into the spaces where patients reside.
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 developed electronic artificial skin that reacts to pain just like real skin, opening the way to better prosthetics, smarter robotics and non-invasive alternatives to skin grafts.
Researchers have developed a groundbreaking process for multi-material 3D printing of lifelike models of the heart's aortic valve and the surrounding structures.
Researchers have created the first microscopic robots that incorporate semiconductor components, allowing them to be controlled with standard electronic signals.
Scientists from Empa were able to 3D print stable well-shaped microstructures made from silica aerogels for use in biotechnology and precision engineering.
Researchers are creating a wearable electronics device that can read brain waves while allowing the wearer to easily drift off into the various stages of sleep.
Scientists have developed an AI system that recognises hand gestures by combining skin-like electronics with computer vision.
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.
Scientist are developing a patch that monitors the sweat of high performance athletes for medical information.
Engineers have designed and developed a novel humanoid hand that may be able to help.
An invention may turn one of the most widely used materials for biomedical applications into wearable devices to help monitor heart health.
Scientists have developed a sensory integrated artificial brain system that mimics biological neural networks, which can run on a power-efficient neuromorphic processor.
Researchers have developed a way of using nothing but graphite pencils and office paper to create highly functional bioelectronic devices.
Bioengineers have designed a glove-like device that can translate American Sign Language into English speech in real time through a smartphone app.
On the 100th anniversary of the Band-Aid, Tufts engineer Sameer Sonkusale is working to make “smart” bandages.
A new smart fabric that can be inflated and deflated by temperature-dependent liquid-vapor phase changes could enable a range of medical therapeutics.
Researchers have developed biomaterial-based inks that respond to and quantify chemicals released from the body or in the surrounding environment by changing color.
Researchers are using high-resolution printing technology and the unique properties of graphene to make low-cost biosensors to monitor food safety and livestock health.
Engineers have designed a thin adhesive film that could upgrade a consumer smartwatch into a powerful health monitoring system.
The Fraunhofer IBMT is developing the miniaturized ultrasound system for automated monitoring of bladder irrigation.
Scientists have developed a 3D printing technique that could have future applications in diagnosing and monitoring the lungs of patients with COVID-19.
Researchers have developed electronic fibers that, when embedded in textiles, can collect a wealth of information about our bodies by measuring subtle and complex fabrics deformations.
Scientists have proposed the concept of a memristive neurohybrid chip to be used in compact biosensors and neuroprostheses.
CU Boulder biomedical engineer Jacob Segil is working to bring back that sense of touch for amputees, including veterans of the wars in Iraq and Afghanistan.
Researchers have crafted an artificial eye with capabilities close to its human model.
A researcher has developed ultra-light tattoo electrodes that are hardly noticeable on the skin and make long-term measurements of brain activity cheaper and easier.
A wearable smart patch will deliver precision data to help people personalise their diets and reduce their risk of developing lifestyle-related chronic diseases like Type 2 diabetes.
Researchers have created ultrathin, stretchable electronic material that is gas permeable, allowing the material to “breathe”.
Researchers developed wirelessly driven ‘smart contact lens’ technology that can detect diabetes and further treat diabetic retinopathy just by wearing them.
A way to incorporate electronic sensors into stretchy fabrics allows scientists to create shirts or other garments that could be used to monitor vital signs such as temperature, respiration, and heart rate.
The future of socially distanced lung and heart health monitoring could lie in an inconspicuous yet incredibly sensitive chip.
Next-generation brain implants with more than a thousand electrodes can survive for more than six years.
EPFL spin-off Annaida is developing a magnetic resonance system that can detect the chemistry inside the tiniest living organisms.
First fully integrated flexible electronics made of magnetic sensors and organic circuits opens the path towards the development of electronic skin.
The chip is capable of precisely controlling oxygen and nutrient levels, and allowing observation of cell behavior in real time.
Researchers have developed a novel wearable strain sensor based on the modulation of optical transmittance of a carbon nanotube (CNT)-embedded elastomer.
Researchers have developed a procedure to produce extremely sensitive and energy-efficient sensors using 3D printing.
Researchers have utilized 3D printing and nanotechnology to create a durable, flexible sensor for wearable devices to monitor everything from vital signs to athletic performance.
Researchers have developed a wireless monitoring system for newborn babies that can easily be implemented to provide clinical-grade care in nearly any setting.
Researchers are investigating the potential of microimplants to stimulate nerve cells and treat chronic conditions like asthma, diabetes, or Parkinson’s disease.
Researchers describe a way to increase the sensitivity of biological detectors to the point where they can be used in mobile and wearable devices.
Researchers at the University of Connecticut have developed a lensless microscope that allows an observer to enjoy an enormous field of view.
Researchers have developed a tumor biosensing chip that can help determine the optimum dosage of chemotherapy required for a cancer patient.
A highly sensitive wearable gas sensor for environmental and human health monitoring may soon become commercially available.
Smart shirt includes health care applications such as the ability to monitor blood pressure, electrical activity of the heart and the level of skin hydration.
Researchers have developed a highly sensitive wearable pressure sensor for health monitoring applications and early diagnosis of diseases.
A wearable monitoring device to make treatments easier and more affordable for the millions of people with swallowing disorders is about to be released into the market.
Chronolife announced the launch of Nexkin, a washable smart T-shirt that monitors six key physiological parameters to enable prevention, risk reduction, and remote monitoring.
Bioengineers have found a way to create stretchy and squeezy soft sensing devices by bonding rubber to electrical components.
Researchers have used a chip-based sensor with an integrated laser to detect very low levels of a cancer protein biomarker in a urine sample.
NanoEDGE research project aims at converging production techniques for functionalized electrodes with expertise in nanomaterial fabrication and characterization.
At the start of 2019 the EU project ELSAH began with the objective of designing a wearable within four years that enables the continuous determination of biomarker concentrations.
Scientists have developed the first electronic sensor that can simultaneously process both touchless and tactile stimuli.
Combining new wearable electronics and a deep learning algorithm could help disabled people wirelessly interact with a computer.
Researchers have made inroads in integrating electronic sensors with personalized 3D printed prosthetics — a development that could one day lead to more affordable electric-powered prosthetics.
Researchers are developing a device that can sense the effects of a potentially fatal level of ingested opioids and deliver a life-saving dose of naloxone.
Scientists created a 3D printed a wearable kirigami sensor patch for shoulders that could improve injury recovery and athletic training.
Researchers have found a way to use graphene to make flexible photodetectors to measure heart rate, blood oxygen concentration, and breathing rate.
Thanks to bionic prosthesis that features sensors that connect to residual nerves in the thigh, two volunteers are the first above-knee amputees in the world to feel their prosthetic foot and knee in real time.
An electronic glove, or e-glove, can be worn over a prosthetic hand to provide humanlike softness, warmth, appearance and sensory perception.
A wireless sensor small enough to be implanted in the blood vessels of the human brain could help clinicians evaluate the healing of aneurysms.
A new fabric innovation allows the wearer to control electronic devices through the clothing and keep the wearer safe from the latest virus that’s going around.
Researchers have developed biodegradable microresonators that could soon be used in implants to control the release of painkillers within tissue.
Researchers reported the discovery of a multifunctional ultra-thin wearable electronic device that is imperceptible to the wearer.
A wearable monitor built with stretchable electronics could allow long-term health monitoring of adults, babies and small children without concern for skin injury or allergic reactions.
Researchers have developed an e-skin that may soon have a sense of touch equivalent to, or better than, the human skin with the Asynchronous Coded Electronic Skin (ACES).
Researchers have invented a completely new way for wearable devices to interconnect which enable easier health monitoring, medical interventions and human–machine interfaces.
Researchers have developed a wearable heart monitor which can assess heart health accurate, and uninterrupted over several days.
Water-resistant and skin-adhesive wearable electronics are using graphene fabric sensor with octopus-inspired microsuckers.
The Open-Source Bionic Leg will enable investigators to efficiently solve challenges associated with controlling bionic legs across a range of activities in the lab and out in the community.
Researchers have developed skin-inspired electronics to conform to the skin, allowing for long-term, high-performance, real-time wound monitoring in users.
Low-cost, stretchy sensors can be assembled inside the lid of a drug container to help monitor patient safety.
Researchers have developed pajamas embedded with self-powered sensors that provide unobtrusive and continuous monitoring of heartbeat, breathing and sleep posture.
Researchers from the University of Bath are developing a new tool for detecting the presence of Dengue fever early on, helping prevent people from suffering potential life-threatening complications.
Graphene-base device could detect disease biomarkers at the molecular level and lead to new sensor technology.
Wireless body sensors could replace the tangle of wire-based sensors that currently monitor babies in hospitals’ NICU and pose a barrier to parent-baby cuddling and physical bonding.
Researchers developed ErgoJack to relieve back strain and encourage workers to execute strenuous movements in a more ergonomic way
A biofeedback device that is wearable and connects to novel smartphone games may offer people with incomplete paraplegia a more self-controllable therapy to enhance their recovery.
Engineers have designed an ingestible pill that quickly swells to the size of a soft, squishy ping-pong ball big enough to stay in the stomach for an extended period of time.
A flexible sensor could hold the key to people with diabetes one day monitoring their blood sugar with a simple puff into a handheld device
Researchers at the University of Stuttgart have built an exoskeleton with which the gripping ability of a paralyzed hand can be restored.
Scientists have developed tiny elastic robots that can change shape depending on their surroundings. They stand to revolutionize targeted drug delivery.
According to researchers in Sweden, a microneedle patch prototype proved to be a more comfortable and reliable blood-sugar monitoring system for people with diabetes.
Using 3D printing, researchers developed a glucose monitor with much better stability and sensitivity than those manufactured through traditional methods.
Activity trackers might lead to better outcomes for hospital patients — when nurses wear them.
Electronic pill can relay diagnostic information or release drugs in response to smartphone commands.
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.
Alphabet, Amazon, Apple and Microsoft are all building technologies that have the potential to transform the delivery of care. Here are some examples of BigTech's road into healthcare.
Materials scientists have developed an alternative to batteries that could power wearable biosensors for health monitoring.
A new flexible sensor developed by engineers can map blood-oxygen levels over large areas of skin, tissue and organs.
A new wireless, Band-Aid-like sensor could revolutionize the way patients manage hydrocephalus.
Researchers have created wearable electronic devices that can monitor the health status of patients at home after heart surgery.
An engineer is leading a team of researchers, health care providers and industry to fast-track the commercialization of a groundbreaking robotic rehabilitation system.
Enginners have developed 3D printed assistive technology that can track and store their use — without using batteries or electronics.
Robots will be able to conduct a wide variety of tasks as well as humans if they can be given tactile sensing capabilities.
Pliable micro-batteries adapt to the specific material and deliver the power for sensors to collect measurement data from our bodies.
AI, Big Data, wearables and sensor technologies are driving the growth of smart hospitals and assisting with the home healthcare sector.
Engineers use carbon nanotube composite coatings for novel sensors that could enable smart textiles.
Multifunctional ‘smart bandage’ wirelessly monitors a variety of physical signals, from respiration, to body motion, to temperature, to eye movement, to heart and brain activity.
Engineers have developed a highly flexible and stretchable sensor that can be integrated with the flow diverter in order to monitor hemodynamics in a blood vessel without costly diagnostic procedures.
Engineering students have created a smart cane that can help visually impaired people to avoid obstacles.
Researchers from the University of Salford have used electronic sensors to show that people with artificial arms and hands are doing damage to their intact limbs.
Made of electronic circuits coupled to minute particles, cell-sized robots could flow through intestines or pipelines to detect problems.
Researchers are developing a simple retinal prosthesis that could restore sight to blind people. Fabricated using cheap and widely-available organic pigments used in printing inks and cosmetics, it consists of tiny pixels like a digital camera sensor on a nanometric scale.
Engineers have created robust, highly flеxible, tattoo-like circuits for the usе in wearаble cоmputing.
A team of engineers has developed a prototype bandage designed to actively monitor the condition of chronic wounds.
Resеarchers have created аrtificial "e-whiskers" which mimic thе prоpеrties of thе reаl thing.
A drinking solution containing millions of tiny electronic sensors disguised as bacteria could helppatients in tracking their illness.
Electronic ‘skin’ will enable amputees to perceive through prosthetic fingertips.
New contact lenses allow to correct vision, monitor glucose and medical conditions.
MIT researchers have built an ingestible sensor equipped with genetically engineered bacteria that can diagnose bleeding in the stomach or other gastrointestinal problems.
Researchers have developed a ultrathin, elastic display that fits snugly on the skin.
Researchers have developed a flexible and stretchable wireless sensing system designed to be comfortably worn in the mouth to measure the amount of sodium a person consumes.
Researchers used a customized, low-cost 3D printer to print electronics on a real hand for the first time.