Stage de Master 2 : Comprendre les transformations structurales des hydrates de sels inorganiques pour le stockage d’énergie thermochimique - 5 à 6 mois
Institut Mines-Télécom · Saint-Étienne, France
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Stage de Master 2 : Comprendre les transformations structurales des hydrates de sels inorganiques pour le stockage d’énergie thermochimique - 5 à 6 mois
Stage de Master 2 en science des matériaux axé sur le stockage thermochimique d’énergie, au sein du Laboratoire Georges Friedel (LGF) à Mines Saint-Étienne.
Compensation
Gratification de stage selon la réglementation en vigueur environ €600/mois
Responsibilities
Réaliser une revue de la littérature sur les hydrates de sels pour le stockage thermochimique.
Mener des cycles de déshydratation/réhydratation suivis par diffraction des rayons X in situ, sous température et humidité contrôlées.
Quantifier les fractions de phases par affinement de Rietveld (TOPAS, GSAS-II).
Relier structure et performance (fraction récupérée, vitesse de réaction, stabilité en cyclage).
Rendre compte des résultats dans un mémoire et une présentation orale, avec une publication possible.
Requirements
Master 2 en science des matériaux, physique, chimie du solide ou génie des procédés
Apply knowledge of metallic alloys, processing methods and material performance to support current products and new product introductions, managing materials test requests and failure investigations.
Compensation
The anticipated pay range for this position is $73,600 - $117,900 annually. The actual base pay offered will vary depending on multiple factors including job-related knowledge/skills, relevant experience, business needs, and geographic location. In addition to base pay, this position is eligible for an annual discretionary bonus program.
Responsibilities
Plan and execute materials evaluations for product validation, manufacturing support, and failure investigations of metallic components.
Work with stakeholders to define engineering objectives, review component history and specifications, and select appropriate test methods, priorities and acceptance criteria while balancing cost and turnaround time.
Conduct failure investigations using an extensive suite of materials laboratory techniques to identify failure mechanisms and contributing factors.
Apply and develop proficiency in scanning electron microscopy (SEM), energy-dispersive X-ray spectroscopy (EDS) and X-ray diffraction (XRD).
Provide material and processing recommendations for aluminum, carbon steel, stainless steel, brass and bronze alloys.
Requirements
Bachelor’s Degree in Materials Science Engineering, Metallurgical Engineering or related field
Develop and characterize nanoporous materials for photocatalytic water purification and contaminant removal, generate preliminary data for publications and external funding, and support student research training.
Responsibilities
Design and synthesize MOFs, COFs, zeolite and other porous materials for photocatalysis
Characterize materials using X-ray diffraction, spectroscopy, adsorption measurements, and other appropriate methods
Plan and execute experiments; analyze data, assess structure-property relationships, and maintain reproducible protocols
Generate preliminary results for external grant proposals; prepare manuscripts, reports, and presentations
Mentor students in experimental techniques, data analysis, and troubleshooting; collaborate across disciplines
Requirements
Ph.D. in chemistry, materials science, chemical engineering, or a closely related field
Nice to have: research experience in MOF or porous material synthesis
Develop and optimize fluorine-resistant optical coatings and material solutions for laser-facing components, leading deposition, testing, and scale-up to production.
Responsibilities
Develop and optimize fluorine-resistant optical coatings for laser-facing components
Design and evaluate fluorine-compatible material systems
Work closely with optics and laser engineering teams to define coating requirements
Lead hands-on coating deposition efforts
Design and execute test plans and DOE
Requirements
PhD in Materials Science, Chemistry, Chemical Engineering, Physics or a closely related field
Nice to have: Experience developing coatings for chemically aggressive environments
Nice to have: Background in laser optics
Nice to have: Experience transitioning coatings from R&D to pilot or high-volume manufacturing
Nice to have: Familiarity with scaling coating processes for industrial production
Lead design and execution of experiments to optimize semiconductor manufacturing processes at TSMC Arizona.
Responsibilities
Apply statistics process control methods to establish and sustain a robust manufacturing process.
Supervise the installation and maintenance of manufacturing equipment to expand capacity with punctuation and quality.
Collaborate effectively with equipment and material suppliers and partners to identify technology gaps and deficiencies; devise, evaluate and qualify mitigation and continuous improvement solutions.
Requirements
Master’s degree in Chemical Engineering, Electrical Engineering, Mechanical Engineering, Physics, Chemistry, Materials Science or a related field
Bachelor’s degree in Chemical Engineering, Electrical Engineering, Mechanical Engineering, Physics, Chemistry, Materials Science or a related field