Informations pratiques

Dates:

07 October | 07 November | 26 November | 09 December

2026 PROGRAM COMING SOON

Schedule: 03:00 p.m to 04:00 p.m

Location: LIST, 41, rue du Brill - L-4422 Belvaux

Attendance either virtual of physical.

 

 

Contact

Alexandros GERAKIS

Envoyer un e-mail
Industrial environment

Seminars on Materials Research and Technology

About the Seminars on Materials & Research Technology

The sMaR&T Seminar Series is designed to connect researchers at the Luxembourg Institute of Science and Technology (LIST) and across Luxembourg with leading international experts.

Drawing on experience from previous edition, the seminars goes beyond traditional lectures. It creates a dynamic setting that encourages informal, yet impactful, discussions between visiting speakers and the local research community. These interactions often lead to cross-disciplinary inspiration and, in many cases, the seed of new collaborative projects.

A Format Designed for Exchange

The strength of the  Seminar Series lies in its structure, which prioritizes personal interaction and networking opportunities alongside the lecture itself. Each seminar day includes a range of touchpoints for researchers to connect with the guest speaker

One-on-One Meetings

Researchers from LIST and other institutions can request individual 30- or 60-minute meetings with the speaker via the seminar registration form. These focused conversations allow for in-depth exploration of shared research interests and strengthen international visibility for Luxembourg’s scientific output.

Networking Opportunities

Participants with existing engagement (via a tour or one-on-one meeting) are invited to informal social gatherings such as a working lunch, dinner, or guided visits to key locations like Belval or Luxembourg City. These events not only deepen scientific dialogue but also showcase Luxembourg’s growing role as a hub of innovation and research excellence.

Who Can Participate?

The Seminar Series welcomes researchers from across Luxembourg, including public institutions and private-sector innovators.

If you’re interested in contributing to or benefiting from this unique platform for knowledge exchange, we invite you to explore our upcoming lectures and connect with the next wave of global research leaders.

⇒ Dive into last edition’s program 

What can you expect?

A Format Designed for Exchange

The strength of the  Seminar Series lies in its structure, which prioritizes personal interaction and networking opportunities alongside the lecture itself. Each seminar day includes a range of touchpoints for researchers to connect with the guest speaker

One-on-One Meetings

Researchers from LIST and other institutions can request individual 30- or 60-minute meetings with the speaker via the seminar registration form. These focused conversations allow for in-depth exploration of shared research interests and strengthen international visibility for Luxembourg’s scientific output.

Networking Opportunities

Participants with existing engagement (via a tour or one-on-one meeting) are invited to informal social gatherings such as a working lunch, dinner, or guided visits to key locations like Belval or Luxembourg City. These events not only deepen scientific dialogue but also showcase Luxembourg’s growing role as a hub of innovation and research excellence.

Programme 2025

Dr. Rémi Dingreville

Sandia National Laboratories, Albuquerque, NM, USA

rdingre@sandia.gov

AbstractMaterials science has always been about mastering the lessons inscribed in the intricate interplay between processing, structure, and properties. Yet this process–structure–property paradigm is really complex, high-dimensional, nonlinear, and often beyond the reach of human intuition. Machine learning (ML) is reshaping how we confront this complexity, not only shortening our learning curves but at times rewriting the very syllabus of discovery. In this talk, I will introduce advanced ML workflows that are “schooled” to detect microstructural fingerprints in large, multimodal datasets and to link them directly to material performance.  Beyond accelerating simulations, these approaches create feedback loops that adapt processing routes, improving properties by design rather than trial and error. I will highlight case studies ranging from data-driven pattern recognition to experiment–simulation hybrids and physics-informed models, showing how each approach teaches us something different about material behavior. Together, these strategies illustrate how ML can both accelerate discovery and deepen understanding—transforming materials science from observation-driven to intelligence-driven innovation. SNL is managed and operated by NTESS under DOE NNSA contract DE-NA0003525. SAND2025-10343A.
BiographyDr. Rémi Dingreville is a Distinguished Member of the Technical Staff at Sandia National Laboratories and Staff Scientist at the Center for Integrated Nanotechnologies (CINT). He holds a Ph.D. in Mechanical Engineering from the Georgia Institute of Technology in Atlanta GA. With expertise at the intersection of computational materials and data sciences, his work focuses on bridging the gap between atomic and mesoscale models to understand and characterize process-structure-properties for materials reliability. Dr. Dingreville 's research has wide-ranging applications, from understanding the mechanical properties of nanostructured alloyed materials to designing materials for energy storage and conversion. He has published over 140 peer-reviewed articles on these topics. Dr. Dingreville is the recent recipient of the J. Keith Brimacombe Medal (2025), the Sandia’s Employee Recognition Award (2024), and Sandia’s Postdoc Association Distinguished Mentorship Award (2023).
Registration

07 October 2025

[REPLAY]

 

Prof Dr. Simone Hochgreb

University of Cambridge, Engineering Department, Trumpington St, Cambridge, UK

simone.hochgreb@eng.cam.ac.uk

Abstract

We discuss the development and application optical diagnostics from the laboratory to near device applications for the understanding of combustion of the fuel blends involving hydrogen. Recent work shows how methane-hydrogen premixed turbulent flames are affected by intrinsic thermo-diffusive instabilities, leading to local acceleration of flame speeds. Optical methods using Rayleigh, OH planar laser induced fluorescence, Mie scatter and laser-induced grating spectroscopy are used to reveal the peculiar behaviour of these hydrogen flames, with implications for how they are modelled for real industrial systems. 

The measurement of sizes and numbers of droplets with dimensions at the edge of the optical range (around 1 μm) is barely possible using optical techniques. Sampling and classification techniques are possible using electrometric or centrifuging techniques, but of course these cannot be used in situ. We discuss how we investigated the generation and drying of droplet clouds using a combination of optical and classification techniques, applied to a practical chemical analysis instrument based on elastic light scattering. We suggest that there is plenty of room for further invention in this area. 

BiographySimone Hochgreb is Professor of Engineering at the University of Cambridge. Her main research involves understanding processes in combustion and reacting flows, as relevant to engines, gas turbines, and industrial processes.  She has developed a methods for the investigation and analysis of autoignition, turbulent flames, sprays, nanoparticle formation and thermoacoustics, as reported in around 190 journal publications. Her more recent interests are in the application of optical diagnostics to the measurements of temperatures and species in turbulent flames, hydrogen combustion, thermoacoustics, aerosols and flame synthesis. Prior to Cambridge she held positions at MIT and Sandia National Labs. She holds a BSc in Mechanical Engineering from the University of São Paulo, and a PhD in Mechanical and Aerospace Engineering from Princeton University. She is Fellow of the Combustion Institute and of the Royal Aeronautical Society, and Distinguished Fellow of the International Institute of Acoustics and Vibration.  She has received the Wolfson Merit Award and the Society of Automotive Engineers Ralph R. Teetor Award.
Registration07 November 2025

Dr. Diana Mihailova

Eindhoven University of Technology

Abstract

This seminar introduces Plasma Matters, a company that grew out of plasma research at Eindhoven University of Technology (TU/e) with the goal of transforming deep scientific insight into practical and impactful technological solutions. What began as a university research initiative evolved into a company that develops simulation software, modeling tools, and consulting services to help industry and research partners understand, design, and optimize plasma-based systems across a wide range of applications.

The talk will describe how Plasma Matters operates at the intersection of science, computation, engineering, and industry. By combining detailed physical models with numerical simulations and experimental validation, the company helps clients understand and optimize complex plasma systems that are difficult to probe experimentally. A particular focus will be on the software framework we develop, designed to make advanced plasma simulation accessible and usable in industrial design workflows while maintaining a high-fidelity physics model.

Alongside the technical perspective, I will share the story of how Plasma Matters emerged from the TU/e research environment, the steps involved in moving from university research to an independent company, and the lessons learned in bridging academic and industrial worlds. The aim of this seminar is also to highlight to young researchers that there are rewarding career paths beyond academia, where one can apply the same scientific mindset to innovation, product development, and impactful problem-solving.

Biography

Diana Mihailova obtained her Ph.D. in 2010 in the Elementary Processes in Gas Discharges group at Eindhoven University of Technology, where she also conducted postdoctoral research. From 2010 to 2015, Diana gained extensive postdoctoral experience at leading institutions in the Netherlands and France, including the Centrum Wiskunde & Informatica in Amsterdam and CNRS & Université Paul Sabatier in Toulouse, working on low-temperature plasma modeling, airborne molecular contamination, and energy-efficient lighting solutions.

Her expertise lies in modeling low-temperature plasmas for a wide variety of applications, including sputter plasmas for laser systems, material processing, atmospheric plasma jets for surface treatment, dielectric barrier discharges, microplasmas for biomedical uses, as well as inductively coupled and microwave plasmas.

After her research career, Diana took on the role of project leader at Eindhoven University of Technology, where she developed the business plan that led to the creation of Plasma Matters B.V. in 2015. Under her leadership as a founder and CEO, the company has bridged the gap between fundamental plasma research and industrial applications. In her seminar, “Plasma Matters: Bringing Science to Technology,” Diana will demonstrate how cutting-edge plasma research drives innovation and technological solutions.

Registration26 November 2025 

Massimo Gatelli

Head of Material Research | IMPACT ACOUSTIC

AbstractThis seminar will explore how technical expertise and innovative thinking can be transformed into successful business ventures. Drawing on experiences in industrial research and entrepreneurship, we will discuss strategies for moving from concept to market-ready solutions, including identifying opportunities, managing technology transfer, and creating spin-offs. The session will highlight practical lessons learned from founding and scaling companies, navigating IP transfer, and building partnerships.
BiographyMassimo Gatelli is Head of Material Research at Impact Acoustic, where he leads innovation in sustainable acoustic solutions. He was the co-founder and former CEO of Milleforma, a R&D company focused on natural and sustainable materials, which successfully exited through an IP transfer to Impact Acoustic. Before that, Massimo co-founded and managed Tethis, a biotech company specializing in advanced surface technologies for diagnostic applications, guiding it from start-up phase through growth and industrialization. His career spans industrial R&D and entrepreneurship, with extensive experience in material innovation and its application in different technology fields. Massimo brings a unique perspective on how technical knowledge can be leveraged to create impactful businesses and is passionate about sustainability, innovation, and bridging science with industry.
Registration09 December 2025

Partenaires

Funded by

RESCOM project code: 19467903

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