Multiphysics Modeling of High-Temperature Metal Oxidation: Industrial Alloy Applications
Develop advanced computational models to predict and optimize high-temperature oxidation in metals and alloys for industrial safety and efficiency.
Best for:Best for physics or energy engineering graduates with expertise in multiphysics simulation (thermal, hydrodynamic, diffusion) and a strong interest in industrial materials science.
Overview
This PhD position at the PIMM laboratory (in collaboration with Air Liquide) focuses on advancing multiphysics modeling of metal combustion in pure oxygen environments to enhance industrial safety and reliability. The project builds on prior research into ignition mechanisms and combustion propagation, now extending to more realistic geometries, pressure conditions, and alloy compositions. The successful candidate will conduct experimental validations, numerical simulations, and industrial-scale extrapolations to refine predictive models for iron, steel, and nickel-based alloys. The work bridges fundamental science and applied engineering, with direct relevance to industrial processes under extreme conditions.
What you'll do
- Develop and validate multiphysics models to predict combustion behavior in pure oxygen environments for pure iron and alloyed metals (e.g., Cr, Ni).
- Conduct experimental validations using thermal analysis, mass measurements, and in-situ radiography to refine simulation parameters.
- Investigate the effects of geometry (bar vs. plate), pressure (up to 700 bars), and alloy composition on combustion thresholds and propagation rates.
- Perform numerical simulations to establish correlations between combustion velocities and material properties for industrial-scale applications.
- Collaborate with Air Liquide to translate research findings into actionable industrial guidelines.
- Publish findings in peer-reviewed journals and present results at international conferences.
- Document methodologies and results for industrial and academic dissemination.
Requirements
Degree required: Master’s degree (or equivalent) in physics, energy engineering, or a related field with a strong focus on multiphysics simulation (thermal, hydrodynamic, diffusion).
Degree offered: PhD
Language: English; proficiency required for academic and industrial communication (no formal test specified).
Instruction: French (for laboratory work) and English (for research output).
- Proven expertise in multiphysics simulation (e.g., CFD, thermal-hydraulic modeling).
- Experience with parameter identification techniques (inverse methods).
- Strong background in materials science or combustion physics.
- Proficiency in scientific programming (e.g., Python, Fortran, MATLAB).
- Ability to conduct experimental validations (e.g., thermal analysis, mass spectrometry).
- Excellent written and oral communication skills for academic and industrial audiences.
- Open to French and international candidates.
- No specific nationality restrictions mentioned.
- No prior industry experience required, but academic excellence in relevant fields is expected.
Funding & terms
How to apply
Deadline: 2026-11-02
Applicants must submit their CV, cover letter, and academic transcripts through the ABG France portal. Shortlisted candidates will be invited for an interview. The application process is competitive and requires alignment with the project’s technical and communication requirements.
- CV
- Cover letter
- Academic transcripts (Master’s degree and Bachelor’s degree)
- Proof of English proficiency (if not a native speaker, though not strictly required)
Contact
Frederic Coste· PhD Supervisor
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