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Neutron experiments reveal how a ferrotoroidic material can store information in four distinct magnetic states, paving the way for future memory technologies with increased storage capacity.

Neutron scattering shows how local density shapes motion within self-assembled protein structures

A recently published study makes an important contribution to our understanding of the physiological processing of plant-based foods. The results of this work can be used to optimise production, improving the digestibility of plant proteins and thus the nutritional value of vegetarian and vegan dishes.

The results of a new study show how materials scientists may be able to fine-tune ionic transport properties to meet specific technological needs in catalysis and solid-state energy devices.

Neutron reflectometry provides valuable insights into the molecular intricacies of plant-based food.

Researchers used neutrons and X-rays to look into the structure of spaghetti at the nanometre scale, comparing the effect of cooking and salt in gluten-free and gluten-containing pasta.

In a series of experiments published in Nature Physics, researchers from Japan, the UK, Sweden, and the Czech Republic collaborated at ILL-IN15, one of the world's leading spin echo facilities. Their neutron spin echo (NSE) experiments confirmed the presence of asymmetric dynamics in the skyrmion phase of MnSi, indicating its strong potential for spintronic devices and sustainable technology.

ILL's instruments play a crucial role in disentangling complex protein crystallisation pathways.

Recently published findings from experiments carried out at the ILL and at SINQ confirm monochromatic small-angle neutron scattering (SANS) as the definitive go-to method to characterise multiband superconductivity in a material.

Research is constantly ongoing to optimise the properties of shampoos. This study could help design better, more sustainable hair-care products with improved conditioning effects. It was developed at ILL in collaboration with L'Oréal.

Energy-resolved neutron experiments provide insights into novel energy technologies

The goal of this study was to complete the mapping of the dynamics of the well-known protein Hsp90 by studying the 5-500 ns timescale using a combination of state-of-the-art complementary techniques, and to take the first steps towards understanding how this timescale relates to the slower dynamics known to drive the protein’s functioning.