The industry portal COMPAMED-online.com is the information platform for bringing together producers, specialist dealers, researchers and users from the medical technology industry. The B2B portal is regularly updated and offers high-quality content in its five spheres of COMPAMED, in line with the latest trends and developments in the medical world. Whether you are an exhibitor or visitor at COMPAMED, here you will find all the relevant information you need for your visit to the fair. We provide you with a versatile service that supports you, among other things, in preparing for the fair, travelling to the fair and finding a hotel. You can also use our extensive exhibitor and product database. There you can quickly and easily find the exhibitors and products that are of interest to you. Whether you are looking for specific companies, products or categories, our database provides you with all the relevant information at a glance.
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The five spheres of COMPAMED!
In order to provide the COMPAMED community with information throughout the year, we present our five spheres of COMPAMED.
Discover news, background articles, interviews, statements, video reports or photo series from the medical high-tech sector, each prepared thematically.
MANUFACTURING & DEVICES
Reports, interviews, news and videos about components and parts / end products, 3D printing and additive manufacturing as well as production.
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.
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.
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.
The Wake Forest Institute for Regenerative Medicine (WFIRM) will make history this month when the first bioprinted solid tissue constructs soar to the International Space Station (ISS) on board the next all private astronaut mission by commercial space leader Axiom Space.
People spend an average of 22 hours a day indoors, where furniture, carpets or wall paints can release harmful solvents over time. The scientists in the international doctoral programme "SENNET" aim to detect such pollutants. They want to develop reliable sensors based on special, porous materials.
How to further improve the special magnetic properties of nanoparticles by microstructure design has been investigated by a team at TU Bergakademie Freiberg using analytical high-resolution transmission electron microscopy.
DTU is expanding its cleanroom facilities to meet the high demand for microchips from companies and researchers. The expansion will also strengthen the development of quantum computers, which are based on research and development of new chips.
A new kind of smart bandage developed at Caltech may make treatment of chronic wounds easier, more effective, and less expensive. These smart bandages were developed in the lab of Wei Gao, assistant professor of medical engineering, Heritage Medical Research Institute Investigator, and Ronald and JoAnne Willens Scholar.
Precise two-dimensional analysis of high-tech layers in microelectronics, battery factories or even in the automotive sector approaches within reach. A measuring system developed at the Fraunhofer Institute for Material and Beam Technology IWS.
With the onset of an aging population, the annual incidence of neurodegenerative conditions such as Parkinson's disease is escalating rapidly. One of the various therapeutic approaches for such diseases is deep brain stimulation. Recently, a research team at POSTECH developed a new technique for administering electrical stimulation to the brain without the need for implanted electrodes.
Cancer is the second leading cause of death and the most feared disease in aging Western societies, representing the greatest challenge to modern medicine. Since cancer cannot be prevented, early and differentiated detection is extremely important for rapid intervention and cure.
Scientists from the Micro, Nano and Molecular Systems Lab at the Max Planck Institute for Medical Research and the Institute for Molecular Systems Engineering and Advanced Materials at Heidelberg University have created a new technology to assemble matter in 3D. Their concept uses multiple acoustic holograms to generate pressure fields.
Novel drugs are based on drug transport using nanoparticles. Whether this drug transport is negatively influenced by an accumulation of blood proteins on the nanoparticle’s surface was not clarified for a long time. Scientists at the Max Planck Institute for Polymer Research have now followed the path of such a particle into a cell using a combination of several microscopy methods.
Age-related macular degeneration (AMD) is a degenerative eye condition. It is the most frequent cause of blindness in humans. In most cases, the chronic progression of the retinal condition is not curable. Fraunhofer researchers have now developed a new method for the production and clinical application of stem-cell-based retinal implants.
Additive manufacturing of tools using a laser powder bed fusion process offers a great number of advantages. That said, it can be difficult to determine the optimal process parameters. For the first time, researchers at Fraunhofer are now simulating the process at the microstructure level in order to identify direct correlations between the workpiece properties and the selected process parameters.
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.
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.
SPIDER project: Using spinwave technology, EU consortium led by Fraunhofer IZM aims to cut computer chip power consumption by 100x. Magnon-based approach promises energy-efficient computing. Project runs till May 2026 with €3M funding.
NUS researchers have developed 'eAir', an innovative pressure sensor inspired by the lotus leaf effect. This sensor could revolutionize minimally invasive surgeries by providing tactile feedback to surgeons and improve patient experiences in monitoring intracranial pressure. Its unique design enhances precision and reliability, potentially transforming various medical applications.
Yale researchers and CytoAstra develop cytophone, a laser-ultrasound platform for noninvasive malaria detection. Funding from Gates Foundation supports prototype development and testing in Burkina Faso. Improved sensitivity offers promising diagnosis and treatment potential, bypassing emerging antigen test challenges.
Scientists are looking at ways to surveil indoor environments in real time for viruses. By combining recent advances in aerosol sampling technology and an ultrasensitive biosensing technique, researchers at Washington University in St. Louis have created a real-time monitor that can detect any of the SARS-CoV-2 virus variants in a room in about 5 minutes.
A patch equipped with highly sensitive electronics is meant to collect and evaluate vital data. In addition, the sensors will be integrated into baby clothing in order to improve the future of medical monitoring for newborns with the highest level of data security.
In the United States, sickle cell disease affects about 100,000 people and about 2 million Americans carry this genetic mutation. The most common and serious problems caused by sickle cell disease are anemia, pain and organ failure – stroke affects about 10 out of 100 children who have this disease. The national median life expectancy for people who have sickle cell disease can reach up to age 50.
The potential of micro scanners in medical technology is immense. Their small size, low weight and high energy efficiency make them ideal for mobile use. More than 200 different micro scanner designs have been developed at Fraunhofer IPMS to meet customer-specific requirements.
For Qun Ren, every minute counts. The Empa researcher and her team are currently developing a diagnostic procedure that can detect life-threatening blood poisoning caused by staphylococcus bacteria rapidly.
Imagine a scenario where you simply just throw in a pill to identify an error—this is now one step closer to reality thanks to the work done by researchers at Fraunhofer IZM in cooperation with Micro Systems Technologies (MST) and Sensry GmbH. As small as a piece of candy, the waterproof IoT sensor can reliably measure the properties of liquids even in hard-to-reach places.
In radiotherapy, precision in targeting tumor tissue while minimizing damage to healthy tissue is crucial. Monitoring the dose of radiation delivered and absorbed in real-time, particularly in the gastrointestinal tract, poses significant difficulty.
Neuroscientists at the University of Zurich have developed innovative objectives for light microscopy by using mirrors to produce images. Their design finds correspondence in mirror telescopes used in astronomy on the one hand and the eyes of scallops on the other.
Infection and immunity status of the population are considered key parameters for handling pandemics. For this purpose, detecting antigens and antibodies is of great importance. The devices currently used for this purpose - what are known as point-of-care (POC) devices- are one option for rapid screening.
mRNA-based vaccines have been one of the key elements in the fight against the coronavirus. The technology was originally developed for cancer therapy and can be used to treat many diseases. Together with partners, Fraunhofer IPK is now researching how mRNA therapeutics and other medication can be better produced and more effectively applied.
Auditory neuroscientist of the University Medical Center Göttingen receives additional funding by the European Research Council. His project "OptoWave" concentrates on optimizing the optical cochlear implant for the application in hearing impaired people.
Having safe drinking water is vital for public health, but traditional methods of disinfection cause their own environmental problems. Chlorine is cheap and easy to use in centralized water systems, but at the expense of harmful chemical byproducts.
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.
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.
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.
Living organisms use powerful physical principles to control interactions at their surfaces. Researchers at the Leibniz Institute of Polymer Research Dresden, Leipzig University and TU Dresden have now discovered why cholesterol-containing surfaces can exhibit greatly reduced attachment of proteins and bacteria.
Microscopic imaging of magnetic fields, enabled by quantum sensing, allows the measurement of the unique magnetic fingerprint of objects. This opens the door for fundamentally new applications in various fields such as materials testing or biomedicine. The system offers a unique compromise of sensitivity, resolution and speed.
Billions of tons of electronic waste are produced in the EU every year. With a novel approach, the new EU project "CircEl-Paper" could sustainably improve the recycling process for electronics in the future.
Materials made of spider silk can be specifically modified or processed in such a way that living cells of a certain type adhere to them, grow and proliferate. This has been discovered by researchers at the University of Bayreuth under the direction of Prof. Dr. Thomas Scheibel.
The smart skin developed by Anna Maria Coclite has many potential applications – from robotics and cosmetic surgery to prosthetics. With an ERC Proof of Concept Grant, the researcher is now exploring its possible practical applications.
Clinically effective, custom-made, discreet and comfortable - the demands on aligners for the therapy of malocclusions are high. This also applies to the material of these orthodontic splints. A team has now developed a highly innovative material that enables completely new treatment concepts and reduces costs. The scientists focused on polymers with shape memory properties.
How can battery metals such as lithium, cobalt, copper, manganese and nickel be recycled in a sustainable way? This question is in the focus of the new EU project METALLICO, in which DECHEMA is also involved. 23 partners from nine countries will optimize five innovative processes for the recovery of those metals and subsequently demonstrate these in case studies on an industrially relevant scale.
Advanced materials become increasingly complex due to the high requirements they have to fulfill regarding sustainability and applicability. Dierk Raabe and colleagues reviewed the use of artificial intelligence in materials science and the untapped spaces it opens if combined with physics-based simulations.
Scientists at the Max Planck Institute for Intelligent Systems, at Johannes Kepler University and at University of Colorado Boulder developed fully biodegradable, high-performance artificial muscles. Their research project marks another step towards green technology becoming a lasting trend in the field of soft robotics.
A research group led by Prof. YAN Xuehai from the Institute of Process Engineering (IPE) of the Chinese Academy of Sciences has developed a family of eco-friendly glass of biological origin fabricated from biologically derived amino acids or peptides.
The DITF have developed a sustainable and cost-saving process to produce carbon fibers from lignin. This is an inexpensive raw material that is available in large quantities and is a waste product in paper production. The process offers high energy-saving potential and is particularly environmentally friendly. It uses natural, renewable raw materials and does not require solvents.
The plastic materials polyurethane and polyvinyl alcohol can now be degraded under mild conditions with the help of enzymes as biocatalysts. Scientists from the University of Greifswald have developed corresponding methods together with the German company Covestro and teams from Leipzig and Dublin, as recently published in Angew. Chem. Int. Ed., in two separate articles.
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.
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.
COMPAMED 2022 has fulfilled the highest expectations. As the leading international trade fair for the supplier sector of medical manufacturing, COMPAMED will once again be the industry's central meeting point for pioneering innovations and developments as well as visionary impulses from 13 - 16 November 2023. Industry and research from all over the world will present future perspectives and solutions. Be there!