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Researchers at the University of Chicago’s Pritzker School of Molecular Engineering have developed a unique hydrogel semiconductor with properties ideal for medical applications. This new material offers seamless integration with tissue, paving the way for advanced bioelectronic devices in implants and non-surgical applications.
The Fraunhofer Institute for Applied Polymer Research (IAP) and the Brandenburg University of Technology Cottbus-Senftenberg (BTU) are developing 3D printing inks with the body's own cartilage cells for personalized cartilage implants. The research is intended to create new treatment options for cartilage damage and strengthen the innovative power of Lusatia.
Researchers at the Leibniz Institute for Plasma Science and Technology (INP) have developed a plasma printing technology that enables the precise modification of surfaces on an extremely small scale.
Researchers at Empa in Switzerland have developed a new type of material that combines several pioneering properties: the cellulose aerogel is biodegradable, can be printed in three dimensions and also offers excellent thermal insulation.
In the pursuit of enhancing clinical diagnostics, researchers at the Indian Institute of Technology Indore have unveiled a new tool—a compact and cost-effective photoacoustic (PA) sensing instrument designed for biomedical tissue diagnosis. This development improves diagnostic practices, patient care and outcomes, offering rapid and accurate insights into breast tissue characterization.
Researchers from the Korea Institute of Science and Technology (KIST) and Lawrence Livermore National Laboratory (LLNL) have made significant progress in developing high-energy-density all-solid-state batteries, aiming for commercialization. Their latest research focuses on the design and synthesis of stable solid electrolytes, crucial for safer and more efficient lithium battery technology.
Researchers from Brigham and Women's Hospital and the Massachusetts Institute of Technology (MIT) have developed a groundbreaking microscopy technology known as decrowding expansion pathology (dExPath). This innovative method allows for the visualization of previously unseen details in human brain tissue, opening new avenues for the diagnosis and treatment of brain cancer.
Researchers at Fraunhofer IZM have now managed to develop a system that can automatically measure propagation losses in integrated optical waveguides, all part of the research project “Integrated Electro-Photonic Panel Systems” (EPho).
The German Institutes of Textile and Fiber Research Denkendorf (DITF) have developed a contacting process with which orientation aids - and e-textiles in general - can be produced more economically and conveniently.
Providing the best possible support for people in production, transferring their knowledge and maintaining their ability to work for as long as possible is becoming increasingly important for companies, a trend report by Fraunhofer IPK makes clear.
In order to produce thin organic semiconductor films automatically and with well-defined properties, researchers – led by Leibniz IPHT in Jena, Germany – have developed a new technological approach for depositing thin films with high molecular precision.
Scientists from the University of Stuttgart, the University of Tübingen, the Max Planck Institute for Intelligent Systems and the Max Planck Institute for Biological Cybernetics are conducting research on intelligent bionic systems that will aid understanding and treatment of certain diseases of the central nervous system.
Within the joint project KODOS (funding reference 13N14607), funded by the German Federal Ministry of Education and Research, a solution for in-line process monitoring and mapping of process parameters was developed with SURAGUS GmbH at Fraunhofer FEP.
Researchers at the Fraunhofer Institute for Digital Media Technology IDMT in Oldenburg have developed a new method for collecting and analyzing vital signs from the human body by using radar.
Trends such as Industry 4.0 and the Internet of Things are making the precise recording of the condition of machines and components increasingly important. To face the challenges in collecting sufficient data, the Fraunhofer Institute for Laser Technology ILT has developed a sensor infrastructure for smart industrial applications and implemented it using additive manufacturing processes.
MIT researchers developed a generative-AI-driven tool that enables the user to add custom design elements to 3D models without compromising the functionality of the fabricated objects. A designer could utilize this tool, called Style2Fab, to personalize 3D models of objects using only natural language prompts to describe their desired design.
Automation and zero-defect production are important trends in machine construction. Artificial intelligence (AI) plays a major role in advancing both of them. Today, it can already detect deviations in process monitoring data and implement quality control in real time. In the future, AI will regulate many more processes and simplify process planning through assistance functions.
Physicists at the University of Würzburg have succeeded in making a new imaging technique ready for use on humans. Radioactive markers and radiation are not necessary for this.
Even if the central concern of digitally integrated production or Industry 4.0 is networking industrial systems – the individual machine remains a central focus point of optimization. The reasons: Networking requires interfaces that must first be implemented on the individual machine.
Developing technology to quickly and efficiently bioprint human tissues at scale is the goal of a new project led by Penn State researchers. When fully developed, the technology will be the first to enable the fabrication of scalable, native tissues such as bones, tracheas and organs.
Specific nerves may be stimulated artificially, for example to treat pain. The finer the nerves, the more difficult it is to attach the required electrodes. Researchers have now developed flexible electrodes produced with 4D printing technology. On contact with moisture, they automatically fold and wrap themselves around thin nerves.
KIMM develops the world’s first 3D bioprinting technology that enhances the function of NK immune cells. The new technology is expected to improve effectiveness of cancer treatment.
A team of researchers at the Max Planck Institute of Colloids and Interfaces (MPICI) has developed a method that could make it more difficult to counterfeit products in the future. The new and patented method makes it possible to produce unique, non-copyable fluorescent patterns quickly, environmentally friendly and at low costs.
Galvanometer scanners have been in use in laser material processing for decades. However, a team from the Fraunhofer Institute for Laser Technology ILT has now developed a new, particularly compact scanner module for applications in 3D printing, micromachining or medical technology.
COMPAMED, the leading international trade fair for the medical technology supplier industry, will take place in Düsseldorf from November 11 to 14, 2024. The COMPAMED Suppliers Forum by Devicemed offers a special opportunity to present your own expertise.
The grand opening of the Health Innovation Hub at Switzerland Innovation Park Ost (SIPO) laid an important foundation stone for future innovations in the field of healthcare. The hub serves as a platform for networking experts from research and industry to jointly drive forward innovative projects in the areas of wearables, health monitoring and disease prevention.
Health Data Research UK (HDR UK) has released findings from a study, demonstrating significant reductions in emergency hospital admissions and A&E attendances through the use of digital remote monitoring technology in care homes. The study showcases the potential of data-driven solutions to enhance healthcare outcomes for older adults.
The Fraunhofer Institute for Production Technology IPT in Aachen has expanded its machinery with a new system for the automated molding of high-precision optical glass components.
The digital world is booming and has long since become part of everyday life in industry and society. More recent developments such as autonomous driving, telemedicine, but also private use require ever higher rates to transmit large amounts of data in real time. 6G should help with this: The aim is to transmit 1,000 GB/s and reduce latency to a tenth compared to 5G.
In its various disciplines and manifestations, design is increasingly gaining importance in Fraunhofer's research. Supporting this trend, the three Fraunhofer Institutes IVI, IWS and IWU in Dresden, together with Technische Universität Dresden, are establishing the "DesignLab for Applied Research" on behalf of the research community.
Fraunhofer researchers at the Fraunhofer Institute for Digital Media Technology IDMT in Oldenburg have developed a speech recognition solution for use in industrial manufacturing. The system works reliably even in noisy environments and can be flexibly adapted to the user’s needs.
The World Health Organization (WHO) ranks antibiotic resistance as one of the top ten threats to global health. A group of researchers at Chalmers University of Technology in Sweden are now presenting a new spray that can kill even antibiotic-resistant bacteria, and that can be used for wound care and directly on implants and other medical devices.
It sounds like trying to scan a vinyl record with a hammer: Light is actually too "coarse" to image small particles on the nanometer scale. However, in their project "Supercol" – funded by the European Union – scientists want to achieve just that: The investigation of nanoparticles with light.
The Fraunhofer Institute for Microengineering and Microsystems IMM uses microfluidics and single-cell technologies to print precise organ structures - a significant development for personalized medicine. At MEDICA 2024 in Hall 3, Stand E74, the team presented its latest advances in bioprinting-based organ culture construction for future medical applications.
Researchers at the Fraunhofer Institute for Photonic Microsystems (IPMS) and the Max Planck Institute for Multidisciplinary Natural Sciences (MPI-NAT) are developing OLED-on-CMOS-based optical stimulators for future cochlear implants as part of the “NeurOpto” project. The technology promises more precise optical stimulation for neurosensory therapies.
Researchers at ETH Zurich, led by Professor Mehmet Fatih Yanik, have developed ultra-flexible brain probes that measure brain activity precisely and gently. In the long term, these new probes should contribute to the treatment of neurological and psychiatric diseases and advance research into brain processes such as memory storage.
Researchers at EPFL have developed a new miniaturized brain-machine interface (BMI) that enables direct brain-to-text communication on extremely small silicon chips. This technology could offer people with severe motor impairments, such as ALS or spinal cord injuries, improved communication capabilities.
With the development of the Fraunhofer Dynamic Mixing Technologies (FDmix) platform, the Fraunhofer Institute for Production Systems and Design Technology IPK and FDX Fluid Dynamix GmbH have achieved a milestone in nanoparticle production.
With the development of the Fraunhofer Dynamic Mixing Technologies (FDmix) platform, the Fraunhofer Institute for Production Systems and Design Technology IPK and FDX Fluid Dynamix GmbH have achieved a milestone in nanoparticle production.
Researchers at the Fraunhofer Institute for Physical Measurement Techniques (IPM) have now developed an innovative sensor that measures the oxygen content directly in the breath and thus provides precise and continuous values.
The innovative magnetic field sensor from Q.ANT, a German quantum technology company, opens up far-reaching possibilities for prosthesis control and sensor technology in medical technology and beyond.
Researchers at Northwestern University (USA) have developed an implant that monitors bladder fullness in real time. The battery-free, flexible device is attached to the bladder wall and transmits the data to a smartphone app.
Cutting-edge AI technology is improving the field of materials science, particularly in the quest for sustainable energy solutions. Researchers at the National Institute for Materials Science (NIMS) in Japan have developed an evolutionary AI technique that accelerates the discovery of high-performance materials crucial for green hydrogen production.
A better understanding of muscle activity patterns in the forearm supports a more intuitive and natural control of artificial limbs. This requires a network of 128 sensors and artificial intelligence based techniques.
Over the next five years, the ERC will provide two million euro of funding for the development of a new class of electronic components that consist almost entirely of water and could make the interface between biological tissue and machine seamless.
The Chair of Databases at TUD Dresden University of Technology is now a partner in the European Regional Development Fund (ERDF) joint research and development project LOTSE - an AI project to optimize chip production in Saxony.
Researchers from Göttingen and Karlsruhe have developed a new treatment approach for pancreatic cancer. The innovative method promises to be able to treat the disease in a more targeted way and with fewer side effects in the future. The therapy is now to be optimized for clinical application as quickly as possible.
When carrying out root canal treatment procedures, dentists need to insert a file deep into the root canal to remove the inflamed tissue. The rotating file often gets jammed and must be cleaned regularly. Researchers have developed a piezoceramic stack actuator that overlays the rotating motion with a vibrating motion.
Special nanoparticles could one day improve modern imaging techniques. Developed by researchers at Martin Luther University Halle-Wittenberg (MLU), the properties of these unique nanoparticles change in reaction to heat.
Scientists from the department Living Matter Physics at the Max Planck Institute for Dynamics and Self-Organization (MPI-DS) developed a general theorem to calculate the minimal energy required for the propulsion of a microswimmer.
Continuous monitoring of sweat can reveal valuable information about human health, such as the body’s glucose levels. However, wearable sensors previously developed for this purpose have been lacking, unable to withstand the rigors or achieve the specificity needed for continuous monitoring. Now, the research team has created a novel wearable patch that may be up to the task.
BioMagnetix uses bacterial magnetic nanoparticles as innovative materials for biomedical applications. The founding team aims to develop and continuously improve high-quality and highly functional magnetic nanoparticles for imaging techniques and therapeutic purposes, such as cancer treatment.
Scientists from the Chair of Materials Science and Nanotechnology at TU Dresden (TUD) have made considerable progress in the development of highly innovative solutions for the detection of viral pathogens in two studies they presented recently.
The BMBF-funded project “Forschungslabore Mikroelektronik Deutschland (ForLab)” brings together 14 German universities active in microelectronics research. Through the ForLab project, they were able to invest in new facilities that will open up new areas of research.
Linnaeus University is partnering with industry and healthcare to develop advanced biosensors, investing SEK 35 million in a project aimed at faster and cost-effective diagnoses of aggressive lung cancer, viral, and bacterial diseases, potentially enabling self-testing at home.
Scientists from NTU Singapore have developed a flexible battery as thin as a human cornea, which stores electricity when it is immersed in saline solution, and which could one day power smart contact lenses.
The Fraunhofer Institute for Manufacturing Technology and Advanced Materials IFAM has developed alternatives to perfluorinated and polyfluorinated alkyl substances (PFAS) that can also be used in medical technology. PFAS, known as the “poisons of the century”, are difficult to break down and will be banned in the EU in the future.
Researchers at Kiel University (CAU) have investigated and compared six biomedical coating materials to understand their interactions with cells, skin and viruses.
Researchers at the Fraunhofer Institute for Applied Polymer Research IAP have developed an innovative, PFAS-free polymer membrane that represents an environmentally friendly alternative to the PFAS-containing membranes previously used in the semiconductor industry.
Precise and durable materials are of crucial importance in modern medical technology. A key material in this area is steel, which is used in various forms and alloys to meet the strict requirements of medicine.
Local drug delivery over a longer period of time: this is one of the challenges that doctors face when treating wounds and inflammations. Empa researchers have now developed a promising solution: “liquid core fibers” that contain drugs inside them and can deliver them precisely over a longer period of time.
There is new hope for patients with narrowed coronary arteries: a self-dissolving stent has been implanted for the second time worldwide at Hannover Medical School (MHH). This innovative stent, which dissolves over time once it has done its job, promises considerable advantages over conventional vascular stents, especially for younger patients.
The trend towards sustainable products and materials is also finding its way into medical technology. With the new GreenLine product range, Ottobock, one of the leading providers of medical technology solutions, offers prosthetists and orthotists and their patients innovative solutions that combine the need for more ecological materials with consistent functionality.
Yonglong Xie, Rice University physics assistant professor, receives the NSF CAREER Award, a $888,555 grant, fueling his research on magnons, quantum entities in magnetic materials, to revolutionize quantum technology. Xie's work shapes future quantum devices and sensors.
Researchers at Universitat Politècnica de Catalunya - BarcelonaTech (UPC) have developed a thermosensitive hydrogel with multifaceted applications, including seawater desalination using solar energy and the creation of advanced biomedical adhesives for semi-invasive therapies and medical diagnostics.
A single strand of fiber developed at Washington State University has the flexibility of cotton and the electric conductivity of a polymer, called polyaniline. The newly developed material showed good potential for wearable e-textiles.
Researchers at the Fraunhofer IAP have been working alongside the Fraunhofer IGB and the Fraunhofer CMI to develop a tissue adhesive that can help avoid early replacement of prostheses in the future.
PFAS filters available for industrial waste are usually made of activated carbon (PFAS = perfluorinated and polyfluorinated alkyl compounds). As this is comparatively expensive, researchers are looking for alternative filter materials for the so-called "eternal toxins", whose hazardous residues only degrade very slowly in the environment.
Prof Dr Klaus Kümmerer from Leuphana University Lüneburg and his colleague Prof Dr Hans-Josef Endres from Leibniz University Hanover want to develop a sustainable recycling model for the plastics industry.
A broken bone failing to heal represents an enormous burden for patients. Fraunhofer researchers have worked alongside partners to develop a composite material to be used in the treatment of such non-union cases. The resulting implant is designed to significantly improve treatment success rates and speed up the healing process.
Despite highly specialized methods that can simultaneously produce a range of materials on a single sample and then measure them automatically, every minute counts when analyzing them: because days or even weeks can pass before the characterization of a sample is complete. The new algorithm can be integrated into existing measuring instruments to boost their efficiency significantly.
Producing new plastic by advanced recycling of post-use plastic (PUP), instead of fossil-based production, can reduce greenhouse gas emissions (GHG) and increase the U.S. recycling rate, according to research by the U.S. Department of Energy’s (DOE) Argonne National Laboratory.
Researchers at the Fraunhofer IWM, in collaboration with Schaeffler Technologies AG & Co. KG, have developed a deep learning model that enables objective assessment of the grain size in steel.
Researchers have invented a nano-thin superbug-slaying material that could one day be integrated into wound dressings and implants to prevent or heal bacterial infections.
A research team from the Department of Materials Science at Kiel University (CAU) has now developed a new material based on a hydrogel that functions similarly to a muscle. The soft material can be reduced and enlarged in a controlled manner within a short time and could thus take on motion tasks in soft robotics, for example.
JAIST researchers create liquid metal nanoparticles (PEG-IMIQ-LM) for cancer treatment, merging photothermal therapy and immunotherapy. Disintegration delivers immunomodulants and tracks cancer cells in real-time. Immune checkpoint inhibitor enhances cancer removal. Promising for future cancer theranostics, with clinical trials anticipated in a decade.
The team of Prof. Dr. Thomas Scheibel, Chair of Biomaterials at the University of Bayreuth, has compiled a current overview of the state of research on protein-based bioadhesives.
Prof. Dr. Christopher Kuenneth together with research partners in Atlanta, USA, have now developed a digital system that promises extraordinarily high economical, technological and ecological benefits: from around 100 million theoretically possible polymers, their system can precisely select those materials that have an ideal property profile for targeted applications at unprecedented speed.
Autonomously switchable polymer materials have recently been developed by materials scientists at the University of Stuttgart and pharmacists at the University of Tübingen.
Nanometer-scale coatings with functional materials play an important role in many sensory, electronic and photonic applications. An international team of researchers – coordinated by Leibniz IPHT in Jena, Germany – has succeeded for the first time in observing novel growth effects of tin coatings on silicon nanometer-structured surfaces.
Plasma scientists at the U.S. Department of Energy’s Princeton Plasma Physics Laboratory (PPPL) have made advancements in microchip manufacturing. Their latest research, highlighted in a recent peer-reviewed publication, aims to enhance production efficiency and streamline manufacturing processes. This development holds the potential to revitalize the American chip industry.
A cutting-edge research from the University of Chicago's Pritzker School of Molecular Engineering and Department of Chemistry unveils a development in immune cell analysis. Scientists have engineered microscopic robots capable of binding to immune cells, offering a novel approach to studying their functions and advancing immunotherapy design.
Professor Pavel Jungwirth and his colleagues from the Institute of Organic Chemistry and Biochemistry of the Czech Academy of Sciences and the cochlear implant company MED-EL, based in Austria, have come up with a complete computer model of the ear. It can be used to simulate hearing of mammals including humans from the outer ear all the way to the auditory nerve.
Germany’s telematics infrastructure (TI) aims to allow healthcare professionals to exchange patient data securely, rapidly and from anywhere. The platform for healthcare applications will soon see a new security architecture. The aim is to make it easier to exchange data between all parties involved as well as to facilitate access to specialist services.
Researchers are developing neuromorphic materials to optimize adaptive algorithms for autonomous driving and more. These materials resemble brain structure, enabling faster and more efficient algorithm responses. Supported by Volkswagen Foundation with €1 million, the team aims to apply the approach to hardware.
Engineering novel molecules and materials with specific properties can yield significant advances for industrial processes, drug discovery and optoelectronics. However, the search for novel molecules and materials is comparable to looking for a needle in a haystack, since the number of molecules in chemical space is of the unimaginable order of 10 to the power of 60.
A novel combination of artificial intelligence and production techniques could change the future of nanomedicine, according to Cornell researchers using a new $3 million grant from the National Science Foundation to revolutionize how polymer nanoparticles are manufactured.
The EU project TEF-Health aims to test and validate innovative artificial intelligence (AI) and robotics solutions for the healthcare sector and accelerate their path to market.
Understanding spoken words, developing normal speech - cochlear implants enable people with profound hearing impairment to gain a great deal in terms of quality of life. However, background noises are problematic, they significantly compromise the comprehension of speech of people with cochlear implants. The team led by Tobias Moser is therefore working to improve cochlear implants.
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