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How neutrons help decode ion transport membranes essential for energy transition devices.

Neutrons reveal molecular diffusion mechanisms inside drug-releasing hydrogels

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

A recent study shows that small molecular modifications can make barocaloric materials respond more reliably under pressure, supporting the development of solid-state cooling technologies without climate-damaging refrigerant gases.

A new study based on neutrons provides valuable insights into the thermal vulnerability of different bacterial families. It shows that organisms adapted to very low temperatures are also surprisingly fragile: even a slight rise in temperature can be lethal, long before any structural damage appears.

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

As a long-standing partner of Université Grenoble Alpes (UGA), the Institut Laue-Langevin is happy to play a key role in the GATES project (Grenoble ATtractiveness and ExcellenceS) - an ambitious initiative designed to foster top-level research and reinforce Grenoble’s position as a leading international scientific hub.

Energy-resolved neutron experiments provide insights into novel energy technologies

By linking theoretical predictions with neutron experiments, researchers have found evidence for quantum spin ice in the material Ce2Sn2O7. Their findings could inspire the technology of tomorrow, such as quantum computers. The results have been published in the journal ‘Nature Physics’.

Monoclonal antibodies (mAbs) are used to treat a large variety of diseases. In order to allow patients to inject these therapeutic molecules autonomously, it is crucial to understand the origin of and to control their viscosity. An international team of researchers used an interdisciplinary approach to understand how molecular interactions and motions influence the viscosity of different mAbs. The study has now been published in the journal Molecular Pharmaceutics.

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.

What exactly happens inside a cell during thermal death was, until recently, a hotly debated question. Collaborative research led by Alessandro Paciaroni, Associate Professor at the University of Perugia, Judith Peters, Professor of Physics at the Université Grenoble Alpes and Fabio Sterpone, CNRS…