
Blood vessels grow synthetic tissue model
Researchers have developed a cell culture system in which a functional blood vessel system is able to grow within a framework made of synthetic material.
Researchers have developed a cell culture system in which a functional blood vessel system is able to grow within a framework made of synthetic material.
Researchers have designed a miniaturized 3D-printed device to inactivate Pseudomonas aeruginosa, a common bacterium that causes the infection.
Scientists have developed a soft and nonirritating microfluidic sensor for the real-time measurement of lactate concentration in sweat.
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.
The quantum sensing abilities of nanodiamonds can be used to improve the sensitivity of paper-based diagnostic tests, potentially allowing for earlier detection of diseases such as HIV.
Researchers have developed an approach to print tiny tissues that look and function almost like their full-sized counterpart.
Researchers have tested a sensor for measuring hydrogen peroxide concentrations near cell membranes. The sensor has the potential to become a tool for new cancer therapies.
Researchers describe a method they developed for growing tiny “brains on chips” from human cells that enabled them to track the physical and biological mechanisms underlying the wrinkling process.
Virtual doppelgangers could one day revolutionize medicine: Researchers are developing a digital twin, which should facilitate the development of personalized therapies.
Researchers illustrated an innovative approach to developing miniaturized and multifunctional sensors.
VR enables scientists to create 3D models of an object to look around to better understand its structure and function.
AI model called EVE shows remarkable capacity to interpret the meaning of gene variants in humans as benign or disease-causing.
Engineers have designed a novel sensor that can detect SARS-CoV-2 without any antibodies, giving a result within minutes.
A machine learning-based approach uncovered disruptions of brain connectivity in children displaying aggression.
When asked to classify odors, artificial neural networks adopt a structure that closely resembles that of the brain’s olfactory circuitry.
Researchers have fabricated the first controllable gas-liquid interface at the nanoscale.
A deep learning algorithm picks up molecular pathways and the development of key mutations more accurately than existing methods.
Rice University engineers create nanostructures of glass and crystal for electronics, photonics.
Researchers have developed a first-of-its-kind wearable, noninvasive glucose monitoring device prototype.
A new test method that detects SARS-CoV-2 in saliva has the same sensitivity as a qPCR test.
Secure AI Labs is expanding access to encrypted health care data to advance AI-driven innovation in the field.
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.
Researchers tested the effectiveness of specialized hydrogels.
Data scientists have used deep learning to identify the right synergistic drug combinations for the rapidly spreading SARS-CoV-2.
Researchers have developed an augmented reality app for smartphones in order to help people reduce their fear of spiders.
Studying these organoids could help researchers develop and test new treatments for pancreatic cancer.
The future of vaccines may look more like eating a salad than getting a shot in the arm.
Researchers have developed a shape memory polymer that stores almost six times more energy than previous versions.
Researchers have found a way to enhance radiation therapy using novel iodine nanoparticles.
The MasSpec Pen has shown to accurately differentiate healthy and cancerous tissue from banked pancreas samples during surgery.
Chemists have developed two new classes of materials in the field of nanomaterials: nano spheres and diamond slivers made of silicon and germanium.
A convection-enhanced macroencapsulation device offers the potential of faster and more effective treatment for people with type 1 diabetes.
Argonne, industry and academia collaborate to bring innovative AI and simulation tools to the COVID-19 battlefront.
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.
Engineers have designed a strong, biocompatible glue that can seal injured tissues and stop bleeding.
Scientists have developed a machine learning technology to understand how gene expression regulates an organism's circadian clock.
Researchers have developed a new method to prevent bacterial infections, by covering a graphene-based material with bactericidal molecules.
Engineers have designed a device that can detect SARS-CoV-2 from a saliva sample in about an hour. They showed that the diagnostic is just as accurate as the PCR tests now used.
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.
Scientists at have shown that diagnostic nanoparticles could be used to monitor tumor recurrence after treatment or to perform routine cancer screenings.
Bioengineers are using 3D printing and smart biomaterials to create an insulin-producing implant for type 1 diabetes patients.
A tool, based on machine learning methods, that evaluates the potential contribution of all possible mutations in a gene in a given type of tumour to the development and progression of cancer.
Bioprinted 3D cardiac patches could reverse scar formation and promote myocardial regeneration after heart attacks.
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.
Artificial intelligence can recognise the biological activity of natural products in a targeted manner.
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 designed a novel face mask that can diagnose the wearer with Covid-19 within about 90 minutes.
Researchers have developed a microchip that can measure stress hormones in real time from a drop of blood.
Using fluoresence images from live cells, researchers have trained an artificial neural network to reliably recognize cells that are infected by adenoviruses or herpes viruses.
Researchers have designed a device to safely and accurately spray the hydrogel inside the area where open heart surgery is being performed.
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 an artificial skin that senses force through ionic signals and also changes color from yellow to a bruise-like purple, providing a visual cue that damage has occurred.
Researchers used an artificial intelligence (AI) algorithm to sift through terabytes of gene expression data to look for shared patterns in patients with past pandemic viral infections, including SARS, MERS and swine flu.
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.
Researchers have developed biocompatible hydrogel materials can rapidly recover from mechanical stress.
Researchers have developed a gene switch that can be operated with the green LED light emitted by commercial smartwatches.
Researchers discovered that AI models have a tendency to look for shortcuts. In the case of AI-assisted disease detection, these shortcuts could lead to diagnostic errors if deployed in clinical settings.
Scientists have been receiving help with vital coronavirus research from an unlikely team of data analysts—players of the popular online computer game EVE Online.
Progressive Mechanoporation makes it possible to mechanically disrupt the membranes of cells for a short time period and let drugs or genes inside cells.
Neural network framework may increase radiologist's confidence in assessing the type of lung cancer on CT scans, informing individualized treatment planning.
Machine learning helps some of the best microscopes to see better, work faster, and process more data.
A new VR platform enables the display of huge amounts of data. This can be helpful, for example, when examining rare genetic defects.
Researchers have fabricated 3D scaffold implants containing antibiotics at high temperatures. These scaffolds support bone regeneration and manage the bone infections.
In-cell nano-3D printer: Scientists have developed a promising approach for synthesizing protein assemblies from protein crystals.
Modern medicine needs better quality samples than traditional biopsy needles can provide, ultrasonically oscillating needles can improve treatment and reduce discomfort.
We spoke to wearables and medical device expert Professor John Rogers about the benefits, challenges, trends and innovation within the sector.
Scientists have figured out how to modify CRISPR’s basic architecture to extend its reach beyond the genome and into what’s known as the epigenome.
Artificial intelligence could help to optimise the development of antibody drugs. This leads to active substances with improved properties, also with regard to tolerability in the body.
Scientists have discovered that a molecular species known as ulvan aids wound healing in humans.
Researchers have proposed that wearable devices could be used to develop a network of health data about a patient, allowing for early diagnosis of COVID-19, even when the patient is asymptomatic.
Powerful algorithms used by Netflix, Amazon and Facebook can ‘predict’ the biological language of cancer and neurodegenerative diseases like Alzheimer's.
Scientists have developed AI-powered nanosensors that let researchers track various kinds of biological molecules without disturbing them.
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.
Researchers have created life forms that self-assemble a body from single cells and do not require muscle cells to move. They're faster, live longer, and can now record information.
Artificial Intelligence is now capable of generating novel, functionally active proteins.
Researchers have developed a new way of using nanomaterials to identify and enrich skeletal stem cells – a discovery which could eventually lead to new treatments for major bone fractures.
Researchers have designed a cellular device capable of detecting and processing biological signals outside the laboratory.
Researchers have found a way to coax particles and droplets into precise patterns using the power of sound.
Researchers have developed a method to produce graphene-enhanced hydrogels with an excellent level of electrical conductivity.
Scientists have developed new nanotube biosensors using synthetic biology, which improves their sensing capabilities in complex biofluids, such as blood and urine.
Researchers have developed a machine learning-based technique that speeds speeds up calculations of drug molecules' binding affinity to proteins.
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.
Researchers have developed a structurally representative liver-on-a-chip model which mimics the full progression sequence of NAFLD.
Researchers have developed a new tissue-section analysis system for diagnosing breast cancer based on artificial intelligence.
Nanoengineers have developed a "wearable microgrid" that harvests and stores energy from the human body to power small electronics.
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.
Using AI and supercomputers, researchers have discovered reoccurring patterns and combinations of the four molecular building blocks A, C, G and T.
Researchers are developing technology to improve high-resolution bioimaging of structures and tissues located deep within the body.
The Wyss Institute's eRapid electrochemical sensor technology now enables specific and multiplexed detection of blood biomarkers at low cost.
Researchers have developed a VR app to reduce fear of heights. Now, they have conducted a clinical trial to study its efficacy.
The work could lead to efficient, detailed artificial bone tissue, opening doors to disease modeling, in vitro cell research on targeted therapies and drug screening.
Researchers have developed a unique inkjet printing method for fabricating tiny biocompatible polymer microdisk lasers for biosensing applications.
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.
The patch, which can be folded around surgical tools, may someday be used in robotic surgery to repair tissues and organs.
Researchers have developed an “organs-on-a-chip” system that replicates interactions between the brain, liver, and colon.
Scientists have created a new way to detect the proteins that make up the pandemic coronavirus, as well as antibodies against it.
Experiments revealed that TALEN is up to five times more efficient than CRISPR-Cas9 in parts of the genome that are densely packed.
How fast could SARS-CoV-2 be detected? Researchers have developed an accurate, high-speed, and portable detector for COVID-19.
Scientists have discovered a new way to analyse microscopic cells, tissues and other transparent specimens, through the improvement of an almost 100-year-old imaging technique.
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.
Preclinical efficacy validation of a light-weight wearable wireless ultrasound brain stimulator for stroke rehabilitation.
Researchers have used lasers and molecular tethers to create perfectly patterned platforms for tissue engineering.
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.
An advanced nanomaterial-based biosensing platform detects antibodies specific to SARS-CoV-2 within seconds.
Physicians who follow AI advice may be considered less liable for medical malpractice than is commonly thought, according to a new study of potential jury candidates in the U.S.
The new device can continuously sense levels of virtually any protein or molecule in the blood. The researchers say it could be transformative for disease detection, patient monitoring and biomedical research.
A new eye test may predict wet age-related macular degeneration, a leading cause of severe sight loss, three years before symptoms develop.
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.
Research has shown how microbubbles carrying powerful cancer drugs can be guided to the site of a tumour using antibodies.
Scientists have created a new method of applying machine learning concepts to the tandem mass spectrometry process to improve the flow of information in the development of new drugs.
A new website allows teachers and students to explore concepts from chemistry and biology by manipulating virtual molecules in augmented reality.
Researchers are developing solutions designed to enable the analysis of breath gas to assist with the diagnosis of disease.
Researchers have shown that graphene quantum dots – a form of graphene with applications in both diagnostics and therapy – are biodegradable by two enzymes found in the human body.
Microneedle patches could provide a means for extracting interstitial fluid to study possible new biomarkers.
Researchers aim to better explain the way plasmas interact with biological materials to help pave the way for plasma use in wound healing and cancer therapy.
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.
Researchers at the Terasaki Institute have developed prototypes of contact lenses that can assist with tear sampling for diagnostic purposes.
A new approach uses a nanosensor to speed up detection of trace amounts of biomarkers for early-disease diagnosis, while retaining high levels of sensitivity.
COMPAMED 2020 took place entirely online due to the pandemic - but still won over their audiences due to their high degree of international resonance in this format too.
Point-of-care electrochemical sensors using revolutionary nanocarbon technology can rapidly test for opioid concentrations in the bloodstream.
Scientists have demonstrated a VR technique which should help in developing drugs against the SARS-CoV-2 virus – and enable researchers to share models and collaborate in new ways.
Researchers have discovered a new way to create nanographene for power and display devices.
Scientists are researching salamanders unique superpower - they can regenerate their spinal cords and regain full functionality.
With soaring demand for point-of-care testing (POCT), microfluidics has been a pivotal resource as COVID-19 swept across the world.
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.
The supplier sector will showcase its expertise and innovative high-tech solutions for the medical technology industry.
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.
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.
A dual-organ system enables the measurement of cardiac toxicity arising from breast cancer chemotherapy.
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 bioceramic implant has proved to stimulate regeneration of natural skull bone so that even large cranial defects can be repaired in a way that has not been possible before.
Scientists are using a custom robot to survey how mutations in regulatory regions of the genome affect animal development.
Virtual reality software which allows researchers to 'walk' inside and analyse individual cells could be used to develop new treatments for disease.
Researchers have built a low-cost multiplex test that can rapidly provide three different types of data on COVID-19.
The development of new medical technologies based on cutting-edge discoveries has accelerated during the coronavirus pandemic.
An ingenious device, only a few micrometers in size, enables to study the reaction of individual biological cells to mechanical stress.
Researchers have developed a new method of 3D printing gels and other soft materials.
Engineers have demonstrated that drug levels inside the body can be tracked in real time using a custom smartwatch that analyzes the chemicals found in sweat.
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.
Researchers have created synthetic materials with morphing abilities that can be 3D printed and self-heal within seconds.
Artificial intelligence can increase the effectiveness of drug repositioning or repurposing research.
Scientists have showed that applying "temporal pressure" to the skin of mice can create a new way to deliver drugs.
Researchers have printed the first biologically correct 3D model of the SARS-CoV-2 virus.
Researchers have developed an AI algorithm that uses computer vision to analyze tissue samples from cancer patients.
Scientists have developed a soft synthetic material that can heal itself within a second after damage.
Scientists are harnessing the mind-bending potential of quantum computers to help us understand genetic diseases – even before quantum computers are a thing.
Using specialized nanoparticles, engineers have developed a way to monitor pneumonia or other lung diseases by analyzing the breath exhaled by the patient.
Researchers have 3D printed a functioning centimeter-scale heart pump with real human cells in the lab.
Researchers have developed a new tool that makes it easier to maximize the power of deep learning for studying genomics.
Researchers have developed a neural network capable of recognizing retinal tissues during the process of their differentiation in a dish.
Researchers combine for the first time gene therapy in the cochlea with optical cochlear implants to optogenetically activate the auditory pathway in gerbils.
Researchers have developed biomaterial-based inks that respond to and quantify chemicals released from the body or in the surrounding environment by changing color.
New muscle has successfully been created in mice using a minimally invasive technique dubbed ‘intravital 3D bioprinting’.
Researchers have developed a smart surface that can actively and repeatedly release and reabsorb substances by environmental stimuli.
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.
Researchers have developed a microneedle patch to deliver mesenchymal stem cells (MSCs) into the skin.
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.
Scientists have developed an experimental diagnostic test for COVID-19 that can visually detect the presence of the virus in 10 minutes.
Scientists invented a tiny microrobot that resembles a white blood cell travelling through the circulatory system.
The Bionic Breast Project from the University of Chicago applies bionic technology to restore post-mastectomy breast function.
Researchers at the Max Planck Institute for Intelligent Systems in Germany have developed powerful nanopropellers that can be steered into the interior of cells to deliver gene therapy.
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 developed an artificial intelligence platform to dramatically increase the efficiency of drug combination therapies.
Brain cancer patients in the coming years may not need to go under the knife to help doctors determine the best treatment for their tumors.
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.
EPFL spin-off Annaida is developing a magnetic resonance system that can detect the chemistry inside the tiniest living organisms.
In order for a COVID-19 vaccine and antiviral drugs to be developed, scientists first need to understand why this virus spreads so easily and quickly, and why it invades our bodies with seemingly little resistance from our immune system.
A research study seeks volunteers to provide data from smartphones, smartwatches and health surveys to help detect COVID-19.
A robotic testing platform developed in just nine days by dementia researchers could substantially increase the UK’s capacity to test people for coronavirus.
The chip is capable of precisely controlling oxygen and nutrient levels, and allowing observation of cell behavior in real time.
Scientists are creating from scratch a diagnostic lab with the capability to process more than 1,000 patient samples per day.
Researchers have developed a procedure to produce extremely sensitive and energy-efficient sensors using 3D printing.
Researchers developed a modular system for the genetic reprogramming of bacteria, thereby turning the organisms into cell factories for multifunctional magnetic nanoparticles.
“AI is the biggest technological breakthrough of our lifetime. It will boost the entire healthcare ecosystem and will eventually re-invent the way we deliver medicine entirely.”
The use of virtual reality can reduce anxiety and improve mood in women undergoing chemotherapy for breast cancer.
An international team of scientists have discovered a new material that can be 3D printed to create tissue-like vascular structures. In a new study, researchers have developed a way to 3D print graphene oxide with a protein which can organise into tubular structures that replicate some properties of vascular tissue.
An AI model identifies a powerful new drug that can kill many species of antibiotic-resistant bacteria.
Researchers describe a way to increase the sensitivity of biological detectors to the point where they can be used in mobile and wearable devices.
For the first time, researchers managed to make intact human organs transparent. Using microscopic imaging they could revealed underlying complex structures of the see-through organs at the cellular level.
Researchers at Georgia Tech have now developed a chip that accurately replicates its function using the human cells that form this important part of our anatomy.
Engineers have developed a “bio-ink” for 3D printed materials that could serve as scaffolds for growing human tissues to repair or replace damaged ones in the body.
By adding infrared capability to the ubiquitous, standard optical microscope, researchers hope to bring cancer diagnosis into the digital era.
Researchers are 3D printing "groovy" tissue-engineering scaffolds with living cells to help heal injuries.
Researchers at the University of Stuttgart have developed a miniature laboratory the size of the tip of a needle.
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.
A highly sensitive wearable gas sensor for environmental and human health monitoring may soon become commercially available.
Researchers have designed a novel approach to use deep learning to better understand how proteins interact in the body.
In a proof-of-concept work, scientists demonstrated their photonics-based sensors using fibers and liquid-filled petri dishes.
Researchers are using laser scalpels and precision robotics to make tattoo removal faster, more accurate and less painful.
Researchers have developed a new algorithm that enables automated detection of metastases at the level of single disseminated cancer cells in whole mice.
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.
An AI platform can analyze genomic data extremely quickly, picking out key patterns to classify different types of colorectal tumors and improve the drug discovery process.
Researchers have developed the revolutionary “CRISPR-Switch”, which enables unprecedented control of the CRISPR technique in both space and time.
Researchers describe a mass-producible wearable sensor that can monitor levels of metabolites and nutrients in a person's blood by analyzing their sweat.
Researchers present sensor prototype that can rapidly, precisely, and cost-effectively measure molecular signals for cancer.
Researchers have created a mobile, wearable device the size of a Band-Aid could allow babies to leave the hospital and be monitored from home.
Wearables are transforming the ability to monitor and improve health, but a decidedly low-tech commodity—the humble toilet—may have potential to outperform them all.
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.
A photonics tech company from Vilnius are on their path to solve the 50-year-old task of making non-invasive blood analysis possible.
Researchers from Thomas Jefferson University use machine learning on ultrasound images of thyroid nodules to predict risk of malignancy.
A new 3D printing platform is able to fabricate multi-component scaffolds that “steal from nature” to engineer tissues organized like native tissues.
A robot-controlled laboratory where decisions are made by artificial intelligence will change the way new drugs are discovered.
With a new process, living cells can be integrated into fine structures created in a 3D printer - extremely fast and with very high resolution.
Computational tools applied to biology are revolutionizing the study of what happens inside cells during an infection, helping scientists to understand disease mechanisms.
Scientists have now produced tiny diamonds, so-called "nanodiamonds", which could serve as a platform for both the therapy and diagnosis of brain diseases.
Researchers have refined the famous CRISPR-Cas method. Now, for the very first time, it is possible to modify dozens, if not hundreds, of genes in a cell simultaneously.
Scientists have developed a tiny pump that could play a big role in the development of autonomous soft robots, lightweight exoskeletons and smart clothing.
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.
Like real bone, the material has a 3D mineral structure populated with living cells, providing a unique model to study bone function, diseases, regeneration.
Scientists participating in the project “DrugTarget” have now developed a method that can quickly check the condition of the genome. This will help develop points of intervention for new medicines
Researchers are developing microrobots that can deliver drugs to specific spots inside the body while being monitored and controlled from outside the body.
Scientists have found the perfect geometry: on a newly developed 3D silicone lattice, human stem cells will grow and behave in the same way as they do inside the human 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.
Using AI and biosensors, researchers have created a device that can determine whether targeted chemotherapy drugs are working on individual cancer patients.
Pancreas-on-a-chip allowes scientists to identify the possible cause of a frequent and deadly complication of cystic fibrosis called CF-Related Diabetes, or CFRD.
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 are pairing a nanoscale imaging technique with virtual reality technology to create a method that allows researchers to “step inside” their biological data.
3D printing: Researchers from across disciplines are developing new approaches and new materials for creating soft tissues.
Researchers encoded their specialized knowledge into the computer game Foldit to enable citizen scientists to successfully design synthetic proteins for the first time.
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.
Years-long tracking of individuals’ biology helped define what it meant for them to be healthy and showed how changes from the norm could signal disease.
The project “BioSensing” from Fraunhofer ISC aims to overcome the limits of modern biosensors with the help of quantum technology.
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.
Scientists have developed a new technique for the decontamination of organs before transplantation using ultraviolet and red light irradiation.
By speaking the brain’s language, the material is a portal between electronics and the brain.
Researchers have "printed" the world's first 3D vascularised engineered heart using a patient's own cells and biological materials.
Researchers at Princeton University have developed a new technology that goes a long way toward replacing the lab with a single microchip.
This is the first rapid detector for dopamine and has the potential to help doctors diagnose Parkinson’s, depression and some forms of cancer.
Graphene-base device could detect disease biomarkers at the molecular level and lead to new sensor technology.
A new ultrasensitive diagnostic device could allow doctors to detect cancer quickly from a droplet of blood or plasma, leading to timelier interventions and better outcomes for patients.
Researchers have created new machine learning software that can forecast the survival rates and response to treatments of patients with ovarian cancer.
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 find new and smaller gene editor: the new gene-editing protein, CasX, may give CRISPR-Cas9 a run for its money.
Several research groups at the Berlin Institute of Health (BIH) are working on digitally combating cancer, comparing experiences with different diagnostic and treatment methods.
Our health system today can no longer be sustained in its existing form. It has become too expensive and too ineffective.
Researchers successfully used CRISPR/Cas9 to limit the impact of schistosomiasis and liver fluke infection, affecting more than a quarter of a billion people in Southeast Asia, sub-Saharan Africa, and Latin America.
Researchers have repurposed the gene-editing tool CRISPR to study which genes are targeted by particular antibiotics, providing clues on how to improve existing antibiotics or develop new ones.
Researchers have given CRISPR-Cas9 an “on” switch, allowing users to keep the #Cas9 gene editor turned off in all cells except its designated target.
Researchers analyze skin cells from mre than 100 people of different ages to find molecular signatures that change as people get older.
UCLA-led team produces images on a laptop that match the quality of those from high-end equipment.
Searching through the mountains of published cancer research could be made easier for scientists, thanks to a new AI system.