Scientists at Institut Laue-Langevin create novel combination of neutron and light scattering to elucidate molecular structure of therapeutic nanoparticles. The technique enables precise determination of particle dimensions, internal structure homogeneity, and potential drug location.
Researchers have discovered a ferrotoroidic material that can store information in four distinct magnetic states, allowing for increased storage capacity. The material's non-volatile behavior and ability to control magnetic states using electric and magnetic fields make it an attractive model system for exploring quaternary memory.
Neutron scattering reveals a new type of protein motion that depends on the surrounding environment within assemblies. The observed behaviour, known as non-Fickian diffusion, shows that molecular motion can no longer be described by a single uniform rule across the whole system.
Researchers develop a new material that exhibits improved reversibility in its barocaloric effect, allowing for a wider temperature range and increased refrigeration capacity. The material combines neopentyl glycol and pentaglycerine with added pentaerythritol to reduce thermal hysteresis.
The study reveals three distinct phases: liquid, solid, and plastic ice, with the latter exhibiting picosecond rotational motion. The implementation of state-of-the-art spectrometers and sample environments enabled the first experimental observation of plastic ice VII at high temperatures and pressures.
Researchers used neutrons to study the magnetic structure of layered perovskites, resolving a long-standing mystery. The study reveals a spiral magnetic structure, which is essential for understanding the material's promising magnetic and electric properties.
The study found clear evidence for a quantum spin ice state in the material Ce2Sn2O7, with the experimental data well described by recent theoretical models. The findings may inspire technology for quantum computers and pave the way towards future unifications of theory and experiments.
Researchers at Institut Laue-Langevin and Aarhus University developed a new method to characterise foam structure, enabling the creation of plant-derived foaming ingredients in food. The technique uses small-angle neutron scattering, imaging, and electrical conductivity measurements to provide insights into pea albumin-based foams.
Researchers studied fermium isotopes with different neutron numbers, revealing a steady increase in nuclear charge radius across the neutron number 152. The experimental results confirmed theoretical predictions on nuclear shell effects and paved the way for further laser spectroscopic studies of heavy elements.
A team of international researchers has measured the molecular diffusion coefficient of a supercritical fluid, revealing a gradual transition from gas-like to liquid-like behavior across the Widom line. This study contributes to our understanding of supercritical fluid dynamics and holds implications for planetary science.
A team of researchers used state-of-the-art imaging techniques to study lithium-ion battery cells. They identified macroscopic deformations in the copper current collector due to local accumulations of silicon during electrode manufacturing. The defects compromise cell structure and functioning when agglomerates exceed 50 microns in size.
Researchers at Institut Laue-Langevin discovered triphenylphosphine molecules exhibit rolling and translating motions on graphite surfaces, facilitated by their geometry and three-point binding. This study provides new insights into surface dynamics and opens up avenues for materials science and nanotechnology.
Researchers have created the first empty clathrate of a new form of ice, known as Ice XVI, which has significant implications for understanding its physical chemistry. The discovery may lead to improved methods for transporting and storing energy, reducing costs and environmental impact.
Researchers successfully separated a neutron's magnetic moment from its particle, observing the first experimental evidence of the 'Cheshire Cat' paradox. This technique can be applied to any property of any quantum object, improving high precision measurements.
Scientists solved the long-standing question of whether ferryl heme in Compound I involves just an oxygen atom or a hydroxyl group, with implications for drug development. The study used neutron crystallography to determine the structure of Compound I at cryogenic temperatures.
A team of international researchers has created 'molecular tadpoles' with unique properties, allowing for improved detergent performance and potential applications in flexible electronics. These molecules are formed by modifying 'bucky balls' with long chains, enabling them to assemble into extended structures.
A study found that methyl oleate in biodiesel emissions reacts with ozone to reduce surfactant properties, slowing down water droplet growth and cloud formation. The reaction could impact the water cycle by altering cloud formations and rainfall patterns.
Scientists used neutron scattering techniques to study mAb clustering, revealing extended clusters in high-viscosity solutions. The insights could help design devices for delivering biopharmaceuticals at high concentrations.