Creating tastier vegan cheese using synchrotron X-rays

The quest for tastier, more sustainable vegan cheese has led Swedish food company Cassius AB to take a closer look at cheese protein structures. Using synchrotron X-rays at MAX IV, Cassius are searching for the perfect scientific recipe for plant-based cheese.

Webinar: Explore the ForMAX beamline at MAX IV

This fall, the ForMAX beamline at MAX IV will go into operation, opening the door to new research opportunities. You are invited to join a series of free webinars to learn about the beamline and how to get access to the instrument. The first webinar is on September 14th 2022.

New Eyes on Forest-Based Materials – ForMAX comes online

ForMAX is the 15th beamline to come online at MAX IV. A large part of the research to be conducted at the beamline will promote the development of new materials and speciality chemicals from renewable forest resources. ForMAX is funded by the Knut and Alice Wallenberg Foundation and industrial partners through the Treesearch consortium.

Developing next generation biostimulants using synchrotron X-rays

Arevo, a company known for producing environmentally friendly solutions for improved plant establishment and growth, has performed its first experiment at MAX IV. The research is focused on developing a new line of biostimulant products with a unique nutrient release profile, ensuring beneficial long-term effects for both plants and soils.

Method to map catalyst structure and local gas environment simultaneously enables depiction of transitional surface structures

One of the key challenges in catalysis research is to understand how catalysts’ structure and function relate to each other. Regardless of the type of catalyst in question, structure and function are dynamic with a strong dependence on the localized reaction conditions such as temperature, pressure, and gas composition just above the catalyst surface. Now, researchers developed a new event-averaging-based method employing time-resolved ambient pressure photoelectron spectroscopy to map catalyst structure and local gas environment simultaneously while reaction conditions change rapidly.

Honeycomb borophene: myth or reality?

Scientists examined whether honeycomb boron can function as a structural analogue 2D material to graphene. Employing core-level X-ray spectroscopies, scanning tunneling microscopy, and DFT calculations, they analyzed the structure and electronic properties of honeycomb boron after its reaction with aluminum. They found that although it resembles graphene in electronic structure to some extent, it fails to form a quasi-freestanding monolayer on aluminum. This lack of a freestanding state is a clear difference from the behavior of graphene or monolayer hexagonal boron nitride (h-BN) on lattice-mismatched metal surfaces.

Using strain to control echoes in ultrafast optics

Researchers at MAX IV measured echoes produced by silicon crystals using the coherent X-ray based technique, tele-ptychography, at NanoMAX imaging beamline. Their findings reveal that strain can be used to tune the time delay of echoes, an important step for tailoring ultrafast X-ray optics.

Structures of several clinically relevant NUDT15 variants are discovered – paving the way for better cancer treatments

Recent research by a group of researchers from Sweden, the US, and the UK successfully developed a specific NUDT15 inhibitor, TH7755, that helped the group to obtain structures of clinically relevant NUDT15 variants: Arg139Cys, Arg139His, Val18Ile, and V18_V19insGlyVal. These insights allow further understandings of the structural basis of thiopurine intolerance in patients carrying these NUDT15