AITHRA réduit l'obsolescence industrielle grâce au premier procédé d'impression 3D de matériaux ultra-performants.Notre nouveau procédé permet de :- Réaliser des formes inédites au plus proche des besoins dans des matériaux très complexes à usiner, comme le diamant ou des céramiques compactes.- Obtenir par impression 3D des propriétés physiques inédites, identiques voire meilleures que celles des matériaux bruts, dans tous les domaines physiques et chimiques : mécaniques, thermiques, électriques, etc.- Minimiser l'impact environnemental, en particulier via des gains énergétiques, grâce à la production Near-Net-Shape caractéristiques de l'impression 3D.Mes principales missions sont :- Développer le nouveau procédé : design, mise en œuvre, essais, propriété intellectuelle,- Mettre en place et piloter une équipe de R&D pour développer le procédé,- Gérer la sous-traitance auprès de partenaires industriels,- Suivre la comptabilité analytique et la comptabilité carbone

I worked on projects to improve financial and operational steering of international groups from aeronautic sector. I realized missions to:- Reinforce the integration of subsidiaries in an international group- Improve the transverse steering of an organization with integrated offers- Transform controlling, analysis and forecasting of plant recurrent costsReferences: STELIA Aerospace, Airbus Helicopters

I designed and performed experiments on high-intensity laser facilities in France and in the US with technical and laser teams and scientific collaborators. These experiments enabled me to study the propagation of multiple laser beams in plasmas in the context of Laser Inertial Confinement Fusion.Main tasks:- Managed series of experiments;- Designed, installed and operated optical diagnostics;- Interacted with suppliers of optical elements;- Developed computer programs to shape and treat data;- Analyzed experimental measurements with physicists and numerical analysts;- Published my work in international refereed scientific journals;- Presented my work at international conferences in France and in the US.Main accomplishments:- C. Neuville et al., submitted to Physical Review Letters (2017), "Enhancement of Crossed-Beam Energy Transfer by the Self-Focusing of the Laser Beam Receiving Energy";- C. Neuville et al., Plasma Physics and Controlled Fusion 60, 044006 (2018), "Inhibition of Crossed-Beam Energy Transfer induced by expansion-velocity fluctuations";- C. Neuville et al., Physics of Plasmas 24, 112110 (2017), "Polarization modification of a spatially randomized picosecond-pulse beam during its amplification by a nanosecond pump";- C. Neuville et al., Physical Review Letters 117, 145001 (2016), "Spatial and Transient Effects during the Amplification of a Picosecond Pulse Beam by a Nanosecond Pump";- C. Neuville et al., Physical Review Letters 116, 235002 (2016), "Experimental Evidence of the Collective Brillouin Scattering of Multiple Laser Beams Sharing Acoustic Waves".

I worked with PhD students on their projects in a laboratory of low-dimensional electron systems with applications in quantum metrology.Main tasks:- Prepared a cryostat cooling down to milli-kelvin temperatures;- Optimized experimental parameters to enhance the transport of electrons one by one.

I designed a scanning tunneling microscope getting into a cryostat and using piezoelectric actuators for C. Chapelier, researcher at CEA. This microscope was made for studying electronic transport and superconductivity in nanoelectronic systems.Main tasks:- Designed the microscope with SolidWorks;- Drew the plans and defined assembly instructions;- Studied and chose piezoelectric actuators;- Interacted with suppliers of piezoelectric materials.