Quantification of fragmentation and aging of plastics in the environment
The subject of plastics in the environment as a polluting and potentially toxic material for all living beings is today a major national, European, and international issue.
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The subject of plastics in the environment as a polluting and potentially toxic material for all living beings is today a major national, European, and international issue.
With the growing attractiveness of hydrogen (H2) as a fuel source for tomorrow's mobility, the issue of H2 storage will become central, especially for the medium size storage as for example in gas station for vehicles. The unique density and diffusivity properties of H2 at ambient conditions make storage very difficult.
Plastic recycling is gaining more and more attraction, not only to find a solution to fossil resources depletion, but also to prevent plastics from damaging environment and to limit health issues. As IFPEN intends to be a major actor of low carbon footprint circular economy, R&D work on plastic recycling is ongoing.
Currently, most numerical simulations performed at IFPEN are carried out in double precision. However, computing in mixed or reduced precision allows an acceleration of the execution, a decrease in energy consumption, and optimal use of the memory.
In a context of energy crisis, health monitoring of wind turbines is a major economic issue. This monitoring allows costs to be reduced by anticipating maintenance operations and optimising operating time. Classical approaches propose to exploit the measurements of a few sensors placed on the wind turbine.
Through various research programs, IFP Energies nouvelles is strongly involved in the development of bioprocesses to produce biofuels and bio-based chemical intermediates. In particular, the Biotechnology department focuses on biological pathways trough the use of micro-organisms, such as Clostridium acetobutylicum.
The development of new technologies in the field of energy requires the implementation of high-capacity heat exchangers. More specifically, IFPEN is now involved in research and innovation related to the desire to decarbonize industrial processes.
The Li-ion battery is the technology selected by all car manufacturers to provide the energy storage required for electrified vehicle deployment. A battery, during its lifecycle, can encounter a wide range of operating conditions. Some of those operating conditions can accelerate battery degradation and can lead to safety issues.
The PhD project is proposed in the context of the transformation of sugars into fine chemicals, more specifically fructose into platform molecules for the chemical industry. The goal of the project is to understand and rationalize the reaction mechanisms of sugars by combined experimental and theoretical approaches.
The interest in bimetallic nanoparticles (NPs) from both a scientific and a technological point of view is continuously growing, and extensive studies in this field have been published during the last two decades.
Catalyst deactivation is the loss of catalytic activity and/or selectivity with time. This is a major and recurring problem in industrial-scale processes. Catalyst deactivation is unavoidable and has a major impact on the reactor technology used and therefore on the process design.
Since 2016, a partnership was initiated between IFP Energies Nouvelles and the Centre National de Recherche en Météorologie (CNRM – Météo France), to study the interactions between wind turbines and the Atmospheric Boundary Layer (ABL).