Fellows – Call N. 1
14 fellows were recruited within the call n.1 (organised in 2021), and they started between August and December 2022.
Further information provided below.
My research investigates the influence of correlated disorder in frustrated magnetic systems by combining systematic solid-state synthesis with controlled disorder and a range of advanced neutron scattering techniques.
My project is devoted to development of a fast neutron inelastic scattering technology for non-destructive characterization of rare-earth elements in magnets.
My GNeuS project is focused on improving Small Angle Neutron Scattering (SANS) data analysis procedures by combining virtual experiments with machine learning algorithms and multivariate statistical methods.
I will conduct the investigation of thermal moderator design for 24 Hz target station by conducting Monte Carlo simulation, using PHITS and Diffmod.
I am mainly working on quench safety and quench protection of metal-insulated superconducting coils for the next generation sample environment magnets.
The main objective of my research project is to develop low dimensional cold moderator systems.
In my research project, I will investigate the interdiffusion of deuterated and protonated polymers making up colloids (latex particles).
My proposed work deals with emergent novel phases of quantum material in extreme condition.
My proposed project is devoted to the preparation and investigation of polysaccharide-based nanogels and microgels obtained as a result of assembly with ionic crosslinking agents.
My GNeuS project is about aqueous-based polymer synthesis and characterization.
The primary goal of my research project is to investigate the structure-property-function relationships in soft materials using Scattering and Rheo-Scattering techniques.
Within GNeuS I will develop a model colloid system containing latex/microgel particles, study their interaction with an industrial flocculating agent, and determine the fractal dimension of the so-formed aggregates.
My work will focus on exploring the structural contributions and interactions between molecules during transient deformations to describe the fundamental physics that give rise to flow phenomena observable on a macroscopic scale.