Develop and apply multi-scale computational frameworks coupling microstructure evolution, crystal plasticity and damage mechanisms across length scales. 

Integrate computational modelling and experimental data (e.g. EBSD, mechanical testing and other characterisation data) to establish robust digital microstructure–property relationships. 

Investigate the interplay between microstructural properties, process-induced evolution and lifetime performance, including formability, fatigue and damage tolerance. 

Model the interaction between manufacturing processes (e.g. forming, machining) and microstructural evolution, providing predictive insight into phenomena such as residual stresses, dynamic recrystallisation (DRX), white-layer formation and hardness. 

Develop cross-scale analysis frameworks linking microscale descriptors to macroscopic performance and enabling digital microstructure design. 

Establish structure–property–performance relationships in metallic and ceramic components by combining deformation history and integrity information from experiments, characterisation and simulations with microscale analysis. 

Collaborate closely with experimental teams to ensure robust model validation and integration with state-of-the-art characterisation techniques. 

Investigate hydrogen–materials interactions, with emphasis on hydrogen resistance, fatigue, formability and lifetime prediction of metallic components. 

Work in research and customer projects: plan tasks, execute simulations, analyse results and communicate findings clearly in reports, presentations and scientific articles. 

(Senior level) Actively lead and contribute to proposal writing and coordination of funding applications, including national and European research programmes, and support the strategic development of research projects. 

(Senior level) Lead work packages or projects, mentor colleagues and help shape the team’s method development roadmap and project portfolio. 

A MSc or PhD in a relevant field such as Materials Science and Engineering, Mechanical Engineering, Solid Mechanics, Physics, Computational Science, Applied Mathematics or another closely related discipline. 

Strong background in one or more of the following areas: computational materials modelling, multiscale modelling, crystal plasticity, damage mechanics, microstructure-sensitive modelling or related fields. 

Experience in developing and applying computational frameworks that link microstructure, deformation and damage mechanisms across scales. 

Experience in integrating modelling and experimental data for validation and interpretation of material behaviour. 

Good understanding of metallic materials, their microstructural evolution and their mechanical integrity under demanding loading or processing conditions. 

Practical programming skills and interest in building maintainable modelling workflows and simulation tools (e.g. Python, C++, Fortran or similar; exact stack can be learned). 

Ability to analyse complex phenomena, work systematically and communicate results to different audiences. 

Fluent in English, with Finnish skills considered a strong advantage (as some projects require Finnish language skills). 

Experience with phase transformation effects (e.g. TRIP), fatigue, crack initiation and propagation, or environmentally assisted damage mechanisms. 

Experience in modelling process-induced microstructure evolution and its impact on component performance and lifetime. 

Familiarity with manufacturing processes such as forming or machining and associated integrity-related phenomena. 

Experience with hydrogen-related degradation mechanisms in metallic materials. 

Experience in EU-funded R&D projects or multi-partner consortia. 

Familiarity with experimental techniques such as EBSD and mechanical testing, or close collaboration with experimental research teams. 

Curious and eager to deepen your understanding of complex material behaviour across scales. 

Systematic and analytical in how you approach scientific problems and structure your work. 

Collaborative and able to work effectively with multidisciplinary teams and research partners. 

Persistent in developing and validating models for demanding integrity, damage and process-related phenomena. 

Motivated to create impact through research that supports sustainable manufacturing and long-term structural integrity. 

Natural sciences with an impact. VTT works on the cutting-edge of natural sciences, and we've invested in building state-of-the-art research facilities for natural sciences, such as the Bioruukki pilot infrastructure for bio- and circular economy. Our research agenda is dedicated to solving systemic and technological challenges, such as reaching carbon neutrality and unleashing the power of synthetic biology. That means that at VTT, your expertise in natural sciences will go towards creating a real impact. Read more about our strategy – Chain reaction for growth.  

Superb colleagues and community. With VTT, you'll join a community of over 2000 multidisciplinary experts who foster a culture of trust, openness, and sharing of knowledge. We work across disciplines and house all the cutting-edge sciences, from quantum computing to synthetic biology, under one roof. Collaborating with superb colleagues is a source of learning, inspiration, and fun. Read more about our organisational culture as the builder of the world's most meaningful place to work. 

Excellent career in research. At VTT, excellence in research is a strategic priority. We offer long-term positions and stable career paths in top-level research. People tend to stay with us for over ten years since there are always new roles and responsibilities to grow into. A combination of cutting-edge academic research and applied customer projects keeps your career path interesting. 

Support for your well-being. Our people are our main asset, so we take good care of them. We aim to nurture excellent team spirit and leadership and offer versatile well-being services to enable a good work-life balance. On top of 6 weeks of paid holidays annually (after one year of work), we offer exercise and culture benefits, hobby clubs, and other versatile services aiming to support your occupational wellbeing.