
virtual.COMPAMED receives international resonance
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.
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.
Researchers have used bacteria to produce intricately designed three-dimensional objects made of nanocellulose.
Researchers have developed a 3D printing technique that creates cellular metallic materials by smashing together powder particles at supersonic speed.
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.
Researchers have produced biodegradable stents with esophageal-derived bioink to directly treat radiation esophagitis.
An ultra-sensitive, resilient strain sensor that can be embedded in textiles and soft robotic systems survived being tested by a washing machine and a car.
In a research-first, 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 discovered a new way to create nanographene for power and display devices.
Researchers reported they designed a flexible and implantable sensor that can monitor various forms of nitric oxide (NO) and nitrogen dioxide (NO2) gas in the body.
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?
Engineers have developed a next-generation circuit that allows for smaller, faster and more energy-efficient devices – which would have major benefits for AI systems.
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 rubbery a bioelectronic implantable device that can monitor and treat heart diseases.
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 managed to develop a unique method to process bulk metallic glasses.
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.
Researchers have developed a ceramic artificial bone coating with triple the adhesion strength compared to conventional coating materials.
Researchers have developed the world's first inkjet technique for using saltwater to encapsulate Quantum dots materials.
Researchers at Penn State have developed a supportive gel that allows for printing of complex shapes using cell aggregates.
Researchers have revelead the mechanism behind making materials used in new memory devices by using artificial intelligence.
Scientists have developed a method for changing the physical properties of 2D materials permanently using a nanometric tip.
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 have developed a next generation wound dressing that can detect infection and improve healing in burns, skin grafts and chronic wounds.
Scientists have shown how smart textiles can be produced in a comparatively easy way, thus opening up new use cases.
Researchers mechanically reprocess silk into a biologically compatible component of bioinks that improves the structural fidelity of 3D-printed hydrogels containing cells for use in drug development and regrowing lost or damaged body
Researchers have 3D printed unique fluid channels at the micron scale that could automate production of diagnostics, sensors, and assays used for a variety of medical tests and other applications.
Researchers have developed ultrasensitive sensors that can detect microwaves with the highest theoretically possible sensitivity.
Researchers used 3D printing techniques to make electronic fibres, each 100 times thinner than a human hair, creating sensors beyond the capabilities of conventional film-based devices.
Radiator-like fluid systems adjust the genetic wiring inside human liver cells in preliminary work toward artificial organ-tissue engineering.
Scientists have developed a bioelectronic system driven by a machine learning algorithm that can shift the membrane voltage in living cells and maintain it at a set point for 10 hours.
Researchers have developed an approach to print tiny tissues that look and function almost like their full-sized counterpart.
Researchers have developed “electronic skin” sensors capable of mimicking the dynamic process of human motion.
An ingenious device, only a few micrometers in size, enables to study the reaction of individual biological cells to mechanical stress.