SaltX Technology has entered into definitive agreements with one of few graphene companies that has the know-how and capacity to manufacture the coal-based material graphene. By using graphene, SaltX has been able to demonstrate that the heat conductivity, and thereby the performance, in the SaltX material can be increased by up to five times. The collaboration project starts immediately and is expected to deliver the first batches of graphene material already next year.
Graphene is the new environmentally friendly, transparent, go-to material that has incredible opportunities for super capacitors, solar cells, semi-conductors, is impervious to water, temperature changes, and can self-repair its bonds. It is 1000 times more conductive than Copper, 200 times stronger than steel, and doesn’t have the limitations of Silicon.
Researchers at the University of Florida’s Department of Mechanical and Aerospace Engineering are developing a graphene-based membrane that aims to improve the process of dialysis treatments and reduce treatment times.
To achieve these goals, the researchers identified two things that needed addressing: the configuration of the membrane, and the material from which it was made. “This membrane is based on simplicity,” the team said. “It is based on something that uses forces of physics, rather than brute force. I made it simple through better understanding and utilizing molecular and nanomaterials self-assembly processes”.
This initiative, managed by the ICN2 and scientifically coordinated by the ICN2 and ICFO, will promote a strong community to develop cutting-edge graphene technologies for and by Catalan industry. It was presented on 4 December this year at the ICN2, in an event to kick start the creation of a project portfolio that simultaneously drives progress and showcases regional excellence.
Paragraf has announced a joint development project targeting new solar technology with Verditek, a clean technology company. The objective is to harness the potential advantages of graphene to improve the output of solar power generation over state of the art cells and panels.
The Graphene Flagship is a 10-year, €1bn project funded by the European Union, aiming to take graphene from the lab to a stage where it could be considered for applications ranging from photonics to electronics, composites, biomedicine, energy and coatings.
The market for e-textile clothing is forecasted to reach $5 billion by 2027, according to the market research firm IDTechEX. And while graphene is expected to be one of the most prominent materials in wearable e-textiles, currently there is no good way to manufacture graphene-based e-textiles on an industrial scale.
When you hear energy storage and graphene mentioned in the same sentence this usually refers to electrical energy. Let’s take a brief look at some of the research that has been coming out of the labs recently…
Researchers at the U.S. Department of Energy’s Ames Laboratory are working towards mastering graphene’s assembly in combination with other materials—a tricky, delicate process performed in ultra-high vacuum environments at the atomic scale.
This week, they published a paper where they reveal that they have conquered a new milestone in their quest. They discovered a process to sheathe metal under a single layer of graphite which, according to them, may lead to new and better-controlled properties for these types of materials.
Toxicity evaluation for the proper use of graphene oxide (GO) in biomedical applications involving intravenous injections is crucial, but the GO circulation time and blood interactions are largely unknown. It is thought that GO may cause physical disruption (hemolysis) of red blood cells. The aim of this work is to characterize the interaction of GO with model and cell membranes and use this knowledge to improve GO hemocompatibility.