Sort by
Refine Your Search
-
well as their catalytic performance (activity, recyclability, etc.). Ultimately, if these materials demonstrate high catalytic performance in terms of conversion yield, selectivity and reaction kinetics, they could be used
-
subsystem will be integrated into an experimental solar thermophotovoltaic platform at PROMES. The candidate will explore the operation of the system under realistic high-temperature conditions using
-
metallurgy to produce high‑performance materials through Spark Plasma Sintering (SPS). This process is based on the simultaneous application of high pressure and an electric current through a graphite die
-
development, yield and reproducibility improvement, and detailed analysis of optical and electrical device performance. Once optimized, the laser sources will be integrated with a high-speed photodiode
-
international conferences. h.Training: Develop mastery of stability theory, machine learning, reduced-order modelling and high-performance computing. The candidate must hold a Master's degree in Fluid Mechanics
-
physical modelling to better understand the physical and chemical phenomena underlying plasmonic activity, with the goal of developing high-performance materials. In this context, the PhD student will be
-
elsewhere as part of the same ANR project will be performed. Refractory high-entropy alloys (RHEAs) with a body-centered cubic (bcc) structure are single-phase solid solutions composed of elements such as Ti
-
transformations, providing sustained growth by way of fertilizer production. Notwithstanding, due to high functioning temperature and pressure, this 'simple' reaction accounts for greater than 1-2% of our annual
-
properties to electrocatalytic performance. The PhD candidate will be trained in all aspects of the project and will finish their doctorate with a strong interdisciplinary profile across the electrochemical
-
PhD position: Nanoengineering refractory compositionally complex alloys for extreme conditions (M/F)
fundamental correlations between composition, microstructure, and irradiation-induced behavior, in order to guide the design of high-performance RCCA materials. The results will provide design strategies