
3D printable biomaterial for personalised medicine
Marc Knebel, head of Medical Systems at Evonik, explains the benefits and applications of the new high-performance polymer VESTAKEEP Care M40 3DF.
Marc Knebel, head of Medical Systems at Evonik, explains the benefits and applications of the new high-performance polymer VESTAKEEP Care M40 3DF.
Researchers have shown in mammals that the concentration of antibiotics in the body can be determined using breath samples.
This overview introduces smart insulin delivery systems and more innovations that help patients and doctors guide decision-making in diabetes care.
Minuscule, self-propelled particles called “nanoswimmers” can escape from mazes as much as 20 times faster than other, passive particles, paving the way for their use in medication delivery.
Scientists have developed a soft and nonirritating microfluidic sensor for the real-time measurement of lactate concentration in sweat.
Researchers have discovered how to tailor-make artificial body parts and other medical devices with built-in functionality that offers better shape and durability, while cutting the risk of bacterial infection at the same time.
A new generation of robotic tools are beginning to be realized thanks to a combination of strong 'muscles' and sensitive 'nerves' created from smart polymeric materials.
Fraunhofer Institute is developing polyurethanes of a reproducible standard.
3D printing can be used to make a variety of useful objects by building up a shape, layer by layer. Scientists have now bioprinted living tissues, including muscle and bone.
The microneedles pierce the biofilm layer of a wound and deliver the medicine to oxygenate the tissue.
Researchers have developed a 3D-printable hydrogel bioink containing mineral nanoparticles that can deliver protein therapeutics to control cell behavior.
Researchers have developed a new bioprinting technique based on voxels.
Scientists have created a new triboelectric fabric that generates electricity from the movement of the body while remaining flexible and breathable.
3D-printed chambers with personalized shapes will be used to grow transplantable tissue that can take the shape of a wound to be closed.
Researchers use bubble casting to create soft robotics capable of grabbing and lifting a ball when inflated with air.
Researchers illustrated an innovative approach to developing miniaturized and multifunctional sensors.
A microfluidic chip takes up a water sample, adds the necessary chemicals and transports it to the detection site.
4D printing could be used to produce parts that exhibit a specific behavior only after they take their predefined shape.
Electronic skins will play a significant role in monitoring, personalized medicine, prosthetics, and robotics.
Engineers have designed a novel sensor that can detect SARS-CoV-2 without any antibodies, giving a result within minutes.
Novel design of brain chip implant allows for measuring neuronal activity while simultaneously delivering drugs to the implant site.
Scientists have developed an algorithm for rapid, computerized diagnosis of COVID-19, overcoming the limitations of reverse transcription polymerase chain reaction.
Rice University engineers create nanostructures of glass and crystal for electronics, photonics.
Scientists have developed a new kind of antibiotic-free protection for wounds that kills drug-resistant bacteria.
“Robotic” textiles could help patients recovering from postsurgery breathing changes.
A new test method that detects SARS-CoV-2 in saliva has the same sensitivity as a qPCR test.
Bioengineers have invented a novel soft and flexible self-powered bioelectronic device that converts human body motions into electricity.
Researchers have developed a novel antibacterial material that can fulfill a wide range of applications as a dressing for wounds, by preventing infection and thus facilitating treatment and healing.
This battery could have a wide range of applications in various types of devices, from soft robots to wearable devices.
A 3D printed microneedle vaccine patch delivers stronger immune response than a vaccine shot.
A 3D-printable polymer nanocomposite ink has incredible properties — and many applications in medicine, aerospace, and electronics.
Scientists have developed a bio-compatible implantable AI platform that classifies in real time healthy and pathological patterns in biological signals.
Researchers tested the effectiveness of specialized hydrogels.
Studying these organoids could help researchers develop and test new treatments for pancreatic cancer.
Researchers have developed a shape memory polymer that stores almost six times more energy than previous versions.
Researchers have developed a biocompatible energy storage device.
New wireless diaper sensors powered by biofuel cell could help prevent diabetes and simplify long-term care.
Researchers provided a sensitive, multiplexing, quantitative detection method for the early diagnosis and targeted therapy of myeloproliferative neoplasms.
Bioengineers have developed biocompatible generators that create electrical pulses when compressed by body motions.
Engineers have designed a strong, biocompatible glue that can seal injured tissues and stop bleeding.
A new material that combines the flexibility of human skin with improved conductivity and tolerance of temperatures as low as -93 C.
Researchers developed a wearable X-ray detector prepared from nontoxic metal-organic frameworks layered between flexible plastic and gold electrodes for high-sensitivity sensing and imaging.
A new approach to tackling the spread of malaria in sub-Saharan Africa, which combines affordable, easy-to-administer blood tests with machine learning and unbreakable encryption, has generated encouraging early results in Uganda.
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.
The 3D printed pressure sensor embedded with a temperature sensor is low-cost and scalable to large-scale production of smart robotic systems.
Researchers at Terasaki Institute for Biomedical Innovation have designed a wearable sensor with wide-ranging strain sensitivity.
Researchers have developed a new process for producing movable, self-adjusting materials systems with standard 3D-printers.
Reseachers have developed a self-powered implantable and bioresorbable electrostimulation device for biofeedback bone fracture healing.
Conquering a chemical challenge to control the structure of a polymer opens a path to better biosensors.
A process that uses heat to change the arrangement of molecular rings on a chemical chain creates 3D-printable gels that can fold, roll, or just hold their shape.
Engineers have developed a sweat-proof “smart skin” — a conformable, sensor-embedded sticky patch that reliably monitors a person’s health.
Scientists have created flexible, metal-free electrode arrays that conform to the body - avoiding damage to organs.
Researchers have designed a device to safely and accurately spray the hydrogel inside the area where open heart surgery is being performed.
Scientistshave developed millimeter-sized robots that can be controlled using magnetic fields to perform highly maneuverable and dexterous manipulations.
Biological engineers have demonstrated a way to easily retrieve data files stored as DNA. This could be a step toward using DNA archives to store enormous quantities of photos, images, and other digital content.
A 3D printer that rapidly produces large batches of custom biological tissues could help make drug development faster and less costly.
Researchers have developed biocompatible hydrogel materials can rapidly recover from mechanical stress.
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.
Researchers have developed a 3D printing technique that allows them to create incredibly small and complex biomedical implants.
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.
Progressive Mechanoporation makes it possible to mechanically disrupt the membranes of cells for a short time period and let drugs or genes inside cells.
Researchers have shown that a group of small autonomous, self-learning robots can adapt easily to changing circumstances. They connected the simple robots in a line, after which each individual robot taught itself to move forward as quickly as possible.
New creation could give machines human-like sense of touch to better judge human intentions and respond to changes in the environment
Researchers are developing a microneedle patch that delivers antibiotics directly into the affected skin area.
A new 3D printing technique that extends the possibilities of lateral flow testing. With the printing technique, advanced diagnostic tests can be produced that are quick, cheap, and easy to use.
Researchers suggest using microneedles for immunotherapy due to the high abundance of immune cells under the skin. The aim is to vaccinate or treat different diseases with minimal invasiveness.
4D printing helps create a biomimetic microchannel scaffold made of collagen and hydroxyapatite.
Scientists have developed a system with which they can fabricate miniature robots building block by building block, which function exactly as required.
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.
Researchers have fabricated 3D scaffold implants containing antibiotics at high temperatures. These scaffolds support bone regeneration and manage the bone infections.
Mechanical engineers have developed a new high-performance artificial muscle technology that enables robots to motion more human-like.
We spoke to wearables and medical device expert Professor John Rogers about the benefits, challenges, trends and innovation within the sector.
EPFL spin-off Readily3D has developed a novel system that can print biological tissue in just 30 seconds.
Scientists have developed an injectable gel that can attach to various kinds of soft internal tissues and repair tears resulting from an accident or trauma.
Scientists have developed a novel type of implantable sensor which can be operated in the body for several months to transmit information on vital values and concentrations of substances or drugs in the body.
Researchers have created polymers that replicate the structure of mucins, the molecules that give mucus its unique antimicrobial properties.
Clinicians using a new viral screening test can not only diagnose Covid-19 in a matter of minutes with a portable, pocket-sized machine, but can also simultaneously test for other viruses.
Researchers at University of Sydney have developed a new moisture test for bionic devices such pacemakers and cochlear implants.
Researchers have developed a method to produce graphene-enhanced hydrogels with an excellent level of electrical conductivity.
Researchers have developed a thread made of conductive cellulose, which offers practical possibilities for electronic textiles.
New hydrogel-based materials that can change shape in response to psychological stimuli, such as water, could be the next generation of materials used to bioengineer tissues and organs.
Researchers have developed a biobattery-powered device capable of both delivering large molecule pharmaceuticals across the skin barrier and extracting interstitial fluid for diagnostic purposes.
Researchers are developing technology to improve high-resolution bioimaging of structures and tissues located deep within the body.
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 developed a unique inkjet printing method for fabricating tiny biocompatible polymer microdisk lasers for biosensing applications.
Engineers have developed a new method that uses light to improve 3D printing speed and precision while also, in combination with a high-precision robot arm, providing the freedom to move, rotate, or dilate each layer as the structure is being built.
Researchers are using 3D printing to produce a new type of bioresorbable airway stent. This could greatly simplify the future treatment of upper airway obstruction.
A portable 3D printed device produces high-resolution 3D images of human skin within 10 minutes. It could be used to assess the severity of skin conditions.
Researchers used 3D printing to create a soft robot muscle that can regulate its temperature through sweating.
The patch, which can be folded around surgical tools, may someday be used in robotic surgery to repair tissues and organs.
Researchers are developing a COVID-19 testing method that uses a smartphone microscope to analyze saliva samples and deliver results in about 10 minutes.
How fast could SARS-CoV-2 be detected? Researchers have developed an accurate, high-speed, and portable detector for COVID-19.
By downscaling the needles tool to micrometer-size, researchers open even more areas of application for them, while bypassing some of the most important issues.
By embedding nanosensors in the fibers of a bandage, researchers have created a continuous, noninvasive way to detect and monitor an infection in a wound.
Researchers have invented a smartphone-controlled soft brain implant that can be recharged wirelessly from outside the body.
Researchers have used lasers and molecular tethers to create perfectly patterned platforms for tissue engineering.
Researchers are creating a smart port to the brain that will use artificial intelligence to selectively stimulate tissue regrowth and seizure intervention.
Researchers have developed a color-sensitive, inkjet-printed, pixelated artificial retina model.
Scientists have designed a hydrogel membrane that may be used to house optical glucose sensing materials toward building a biosensor for monitoring sugar levels in diabetics.
A potential new treatment for the eye disease glaucoma could replace daily eyedrops and surgery with a twice-a-year injection to control the buildup of pressure in the eye.
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 developed a technique for manufacturing micrometre-long machines by interlocking multiple materials in a complex way.
Researchers at have revealed how high-frequency sound waves can be used to build new materials, make smart nanoparticles and even deliver drugs to the lungs for painless, needle-free vaccinations.
Skin and cartilage are both strong and flexible – properties that are hard to replicate in artificial materials. But a new fabrication process brings lifelike synthetic polymers a step closer.
Surgeons will soon have a powerful new tool for planning and practice with the creation of the first full-sized 3D bioprinted model of the human heart.
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.
Scientists develop a label-free method for identifying respiratory viruses based on changes in electrical current when they pass through silicon nanopores.
To address the controversies on the feasibility of 3D printing for membranes, researchers have coined a new term 'hybrid additive manufacturing' for the water treatment industry.
The supplier sector will showcase its expertise and innovative high-tech solutions for the medical technology industry.
Using 3D printing, researchers replicated an aneurysm in vitro and performed an endovascular repair procedure on the printed aneurysm.
Researchers have developed a precisely controllable system for mimicking biochemical reaction cascades in cells.
Researchers have adapted a new class of materials for their groundbreaking volumetric 3D printing method that produces objects nearly instantly, greatly expanding the range of material properties achievable with the technique.
Researchers have developed a ceramic artificial bone coating with triple the adhesion strength compared to conventional coating materials.
Researchers are testing new ways to spin liquid crystals into fibers that could be used in camouflage clothing or to create cleaning wipes that can detect the presence of bacteria.
Scientists at Purdue University have developed tiny robots that can walk through the colon to deliver drugs precisely where needed.
Scientists have developed a method for changing the physical properties of 2D materials permanently using a nanometric tip.
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.
Scientists have shown how smart textiles can be produced in a comparatively easy way, thus opening up new use cases.
Find out more about how scientists and physician are using AI to make contributions in the fight against the coronavirus.
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.
Scientists have invented an optical platform that will likely become the new standard in optical biointerfaces.
Researchers have developed a new method of 3D printing gels and other soft materials.
Researchers have found a way to send tiny, soft robots into humans, potentially opening the door for less invasive surgeries and ways to deliver treatments for several conditions.
Researchers at Duke University have engineered a workaround to make ventilators safer and more efficient when splitting them between patients.
Researchers have developed a microneedle patch for monitoring glucose levels using a paper sensor.
Although true “cyborgs” — part human, part robotic beings — are science fiction, researchers are taking steps toward integrating electronics with the body.
The new 3D hydrogels provide high rates of cell proliferation, as they mimic lymph nodes, where T-cells reproduce in vivo.
Researchers have created the first microscopic robots that incorporate semiconductor components, allowing them to be controlled with standard electronic signals.
Researchers have invented a new type of surgical glue that can help join blood vessels and close wounds faster and may also serve as a platform to deliver pain relief drugs.
Scientists from Empa were able to 3D print stable well-shaped microstructures made from silica aerogels for use in biotechnology and precision engineering.
Researchers have created a wearable sensor printed on microbial nanocellulose, a natural polymer.
Researchers have created synthetic materials with morphing abilities that can be 3D printed and self-heal within seconds.
Scientists and collaborators are using machine learning to address two key barriers to industrialization of two-photon lithography.
Engineers are developing a 3D printed artificial blood vessel that allows doctors and patients to keep tabs on its health remotely.
Scientists have developed a soft synthetic material that can heal itself within a second after damage.
An invention may turn one of the most widely used materials for biomedical applications into wearable devices to help monitor heart health.
Bioengineers have designed a glove-like device that can translate American Sign Language into English speech in real time through a smartphone app.
Researchers have developed an artificial liquid retinal prosthesis to counteract the effects of diseases such as retinitis pigmentosa and age-related macular degeneration.
Thanks to a variety of smart technologies, high-tech clothing today is capable of analyzing body functions or actively optimizing the microclimate.
New muscle has successfully been created in mice using a minimally invasive technique dubbed ‘intravital 3D bioprinting’.
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.
Scientists at Purdue University have developed a skin patch that can deliver chemotherapy into melanoma tumors in an effective and painless way.
Scientists have developed a method to 4D print objects that can be manipulated to take on alternate forms when exposed to changes in temperature, electric current or stress.
Researchers have developed a method to 3D print liquid crystal elastomers so that they form complex structures with physical properties that match those of complex biological tissues, such as cartilage.
Researchers have used printed, ultra-thin, and highly sensitive nanocomposite sensors for the treatment of patients in whom the blood sugar level is abnormally high (diabetes mellitus).
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.
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.
Researchers have developed a novel sensor for detecting the new coronavirus. In future it could be used to measure the concentration of the virus in the environment.
Next-generation brain implants with more than a thousand electrodes can survive for more than six years.
A robotic testing platform developed in just nine days by dementia researchers could substantially increase the UK’s capacity to test people for coronavirus.
Scientists are creating from scratch a diagnostic lab with the capability to process more than 1,000 patient samples per day.
Engineers are working on developing soft, flexible neural implants that can gently conform to the brain’s contours and monitor activity over longer periods.
Researchers have produced a gel from cellulose fibres and biodegradable nanoparticles that liquifies when pressed through the nozzle of a 3D printer, but then quickly returns to its original shape.
Researchers have created a 4D printer capable of constructing patterned surfaces that recreate the complexity of cell surfaces.
Researchers are investigating the potential of microimplants to stimulate nerve cells and treat chronic conditions like asthma, diabetes, or Parkinson’s disease.
Bioengineers have developed a prototype patch that does the same job as crucial aspects of heart tissue.
By adding infrared capability to the ubiquitous, standard optical microscope, researchers hope to bring cancer diagnosis into the digital era.
Researchers have developed a smart insulin-delivery patch that could one day monitor and manage glucose levels in people with diabetes and deliver the necessary insulin dosage.
Researchers developed a bullet-shaped, synthetic miniature robot which is acoustically propelled forward – a speeding bullet, in the truest sense of the word.
In the PolyKARD project, biomimetic polymers are being developed that can imitate the mechanical properties of pericardial tissue.
Researchers used a microfluidic devices to fabricate tiny strands of collagen called fibrils to help further his team’s research on the eye’s repair process.
Researchers have developed a super-stretchy, transparent and self-powering sensor that records the complex sensations of human skin.
Physicists from University of Augsburg have developed a "smart" coating that is particularly toxic when bacteria are present in its environment.
Scientists have developed the first electronic sensor that can simultaneously process both touchless and tactile stimuli.
A 3D printing technique allows fabrication of multilayer blood vessels that have the unique biomolecules needed to transform into functional blood vessels when they are implanted.
A new 3D printing platform is able to fabricate multi-component scaffolds that “steal from nature” to engineer tissues organized like native tissues.
A new way of 3D printing soft materials such as gels and collagens offers a major step forward in the manufacture of artificial medical implants.
Coated pill carries microneedles that deliver insulin and other drugs to the lining of the small intestine; they usually have to be injected.
With a new process, living cells can be integrated into fine structures created in a 3D printer - extremely fast and with very high resolution.
A wireless sensor small enough to be implanted in the blood vessels of the human brain could help clinicians evaluate the healing of aneurysms.
Organ-on-a-chip technology has the potential to revolutionize drug development. Researchers have succeeded in putting various types of tissue onto chips.
Engineers have developed a magnetically steerable, thread-like robot that can actively glide through narrow, winding pathways, such as the labrynthine vasculature of the brain.
With the help of a 3D printed salt template, researchers have succeeded in producing magnesium scaffolds with structured porosity that are suitable for bioresorbable bone implants.
Scientists have developed a tiny pump that could play a big role in the development of autonomous soft robots, lightweight exoskeletons and smart clothing.
Researchers have developed a new method for producing malleable microstructures – for instance, vascular stents that are 40 times smaller than previously possible.
Researchers reported the discovery of a multifunctional ultra-thin wearable electronic device that is imperceptible to the wearer.
Researchers have developed a technique that allows them to remotely control the movement of soft robots, lock them into position for as long as needed and later reconfigure the robots into new shapes.
3D printed custom-made artificial heart valves from silicone could help meet an ageing population’s growing demand for replacement heart valves.
The active adhesive dressings speed up wound healing based on heat-responsive hydrogels that are mechanically active and antimicrobial.
Researchers are developing microrobots that can deliver drugs to specific spots inside the body while being monitored and controlled from outside the body.
Revolutionary material could lead to 3D-printable magnetic liquid devices for the fabrication of artificial cells that deliver targeted drug therapies to diseased cells.
Engineers have designed pliable, 3D printed mesh materials whose flexibility and toughness they can tune to emulate and support softer tissues such as muscles and tendons.
Researchers have developed a wearable heart monitor which can assess heart health accurate, and uninterrupted over several days.
3D printing: Researchers from across disciplines are developing new approaches and new materials for creating soft tissues.
Wearing a sensor-packed glove while handling a variety of objects, researchers have compiled a massive dataset that enables an AI system to recognize objects through touch alone.
Researchers have 3D printed an artificial cornea using the bioink which is made of decellularized corneal stroma and stem cells.
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.
Scientists hope we will soon be using 3D-printed biologically functional tissue to replace irreparably damaged tissue in the body.
Scientists have now developed a new type of biomaterial that could help the healing of injuries, especially of severed nerve tracts.
Nanotech-powered electrodes help solve the challenges of using sweat to assess biological conditions in real time.
Researchers develop new technology to print nanoparticles in different shapes. Personal drug delivery or nano-robotic systems could be a key concept for future medical applications.
Researchers have developed pajamas embedded with self-powered sensors that provide unobtrusive and continuous monitoring of heartbeat, breathing and sleep posture.
Bioscientists are moving closer to 3D printed artificial tissues to help heal bone and cartilage typically damaged in sports-related injuries to knees, ankles and elbows.
Engineers have combined CRISPR with electronic transistors made from graphene to create a new hand-held device that can detect specific genetic mutations in a matter of minutes.
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.
Researcher have developed a drug capsule that releases insulin in the stomach could replace injections for patients with diabetes.
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
Scientists have developed microscopic, hydrogel-based muscles that can manipulate and mechanically stimulate biological tissue.
Researchers use the biodegradable material cellulose to produce implants for cartilage diseases using 3D printing.
Electronic pill can relay diagnostic information or release drugs in response to smartphone commands.
Materials scientists have developed an alternative to batteries that could power wearable biosensors for health monitoring.
Scientists have developed a miniaturized electronic platform for the stimulation and recording of peripheral nerve fibers-on-a-chip.
Researchers are developing polymer fibers that recognize the need for therapy all by themselves and dose the active ingredients with precision and accuracy.
Researchers have fully 3D printed an image sensing array on a hemisphere, which is a first-of-its-kind prototype for a “bionic eye.”
Electrical and medical engineering researchers create device that makes it easier to measure pressure inside the eyes of people at risk for glaucoma.
Engineers built a 3D printer that produces a delicate network of thin ribbons of hardened isomalt, the type of sugar alcohol used to make throat lozenges.
Researchers have developed a highly elastic biodegradable hydrogel for bioprinting of materials that mimic natural human soft tissues.
“The antifungal application could prove invaluable among those highly susceptible to infection, such as the elderly, hospitalized or disabled patients.”
Swinburne research contributes to novel solution for repairing cartilage damage using the latest technologies in stem cell science.