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A national research center in France seeks a motivated researcher specializing in industrial CO2 electrolysis for ethylene production. The role involves developing and optimizing electrochemical systems, coordinating projects with industry partners, and conducting technical evaluations to ensure feasibility for industrial applications. Candidates should hold a PhD in a relevant field and have experience in electrochemical technologies. Join us to tackle key challenges in sustainable synthesis and carbon capture technologies.
We are looking for a highly motivated and competent researcher (M/F) in the field of industrial CO2 electrolysis for ethylene production. The successful candidate will be involved in the design, development and optimization of advanced electrochemical systems for the sustainable synthesis of ethylene from carbon dioxide. The aim of the position will be to bring this technology to industrial development by overcoming the following major challenges: scaling up the system and achieving stability in excess of 100h.
The main mission is to lead the scaling up of CO₂ electrolysis technology and adapt it for industrial implementation. This includes optimizing the manufacturing process for membrane electrode assemblies (MEAs), improving reproducibility and reliability, and enhancing the overall technology readiness level (TRL). The position also involves developing and validating procedures to ensure long-term stable operation and compatibility with industry standards. At the same time, the position involves designing and testing next‑generation catalytic materials and MEA architectures aimed at improving the activity, selectivity, and durability of the system. This effort supports the company's continuous innovation strategy and helps maintain its technological competitiveness.
Rapidly rising levels of carbon dioxide (CO2) in the atmosphere have prompted the development of carbon capture, utilization and storageCCUS) technologies. In this context, the conversion of CO2 into chemical fuels makes it possible to close the carbon cycle. Since multi‑carbon (C2+) products have a higher market value and are more energy‑intensive, intensive efforts have been devoted to improving reaction selectivity for the production of C2 and C2+ molecules. Modest energy efficiency and selectivity towards the production of multi‑carbon molecules at industrially relevant current densities, however, limit the development of CO2 reduction reaction (CO2RR) technology.
Our team has recently developed an efficiency strategy to control the selectivity of CO2RR. This strategy has been successfully tested in a continuous‑flow electrolyzer.
The position covers a wide range of technical and coordination activities, including: