Student engagement at MAX IV with MATRAC School

Forty-five university students recently got an exciting opportunity to visit MAX IV and PETRA III, attend lectures, and explore beamline technologies hands-on through the MATRAC I School. The educational programme, held in March this year, provides knowledge on the application of neutron and X-ray radiation in engineering materials science.

Reaction undercover: boosting the potency of catalysts

To sever society’s tether from fossil fuels, the development of more efficient catalysts for renewable energy production is a recognized, key step. On surfaces covered by 2D materials, a more detailed picture of the reaction process will greatly enhance our understanding, according to a recent study in ACS Catalysis. Researchers in Sweden have observed the effects of hydrogen and other gas combinations on 2D material graphene during undercover reactions using ambient-pressure XPS at MAX IV’s HIPPIE beamline.

Protection for large intestine and migraine medication – news from MAX IV users

Gel baserad på matavfall kan skydda tjocktarmen I global livsmedelsproduktion går en tredjedel av den råvara som används till spillo varje år. Forskare vid KTH har funnit ett nytt användningsområde för den del av maten som annars skulle gå förlorad. Uppfinningen är en gel baserad på majsfibrer som bland annat skulle kunna ingå i mat

A toothy temporal map of Arctic climate change

In the vast, remoteness of the Arctic, few have the opportunity to gather data on the environmental conditions over time or decipher the long-term effects of climate change. What is required? A considerable period to observe, a nearly autonomous method or actor for collection, a robust character to withstand the harsh surroundings. Researchers from Aarhus University in Denmark are tackling this issue through an interdisciplinary NordForsk project. At DanMAX beamline, the group will analyse a narwhal tusk to determine its chemical composition and biomineralization, both important potential markers of the changing environment.

Amorphous atomic structure of tungsten oxide detected at DanMAX

The relationship between atomic structure and size is crucial knowledge in the effort to improve nanomaterials properties. Amorphous atomic structure was revealed in research done at DanMAX beamline of otherwise crystalline tungsten oxide nanoparticles due to the change of the nanoparticles size. This understanding is crucial for developing materials for, among others, catalysis, batteries, solar cells, memory storage, medicine, etc.