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Juergen GremmelsView profile

Research Fellow

Max Planck Institute of Molecular Plant PhysiologyGermany

Dr. Juergen Gremmels serves as a Research Fellow and Programmer within the Infrastructure and Service Group's Bioinformatics unit at the Max Planck Institute of Molecular Plant Physiology in Potsdam, Germany. His role combines software development expertise with scientific research support for plant molecular physiology projects, focusing on computational solutions for complex biological data management and analysis. His academic foundation includes a Chemistry degree from Karlsruhe Institute of Technology (1987-1995), followed by PhD studies at Universität Karlsruhe (1996-1997) and IVW GmbH Kaiserslautern (1997-2000). He completed his dissertation on polyurethane recycling methods in 2001 after specialized bioinformatics training at Softwareakademie Kaiserslautern (2001-2002), transitioning from materials science to computational biology. Gremmels' research demonstrates a distinct evolution from polymer chemistry to plant bioinformatics. His early work (1998-2001) pioneered hygrothermal degradation techniques for polyurethane recycling in epoxy resins and rubber composites. Current research (2010-2023) centers on developing bioinformatics infrastructure, including the AssemblX toolkit for multi-gene assembly, mobile phenotypic data systems, and contributions to mitochondrial genome editing in plants. This dual expertise enables unique cross-disciplinary approaches to sustainable materials and plant biotechnology. Publication analysis reveals two clear research phases: pre-2010 work focused on polymer modification and recycling mechanisms, while recent publications emphasize computational tools for plant genomics. Key themes include genome editing precision (2023), plastid translation mechanisms (2017), and data management systems for phenotypic analysis (2010-2015), reflecting his central role in developing research infrastructure for molecular plant physiology. No scientific awards or fellowships are documented in available sources. His professional trajectory shows consistent technical specialization without indication of student supervision or grant leadership. Current work remains anchored in the Infrastructure and Service Group where he develops and maintains critical bioinformatics systems supporting the institute's plant physiology research mission.

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Rakesh ArulView profile

Research Fellow

University of CambridgeUnited Kingdom

Dr Rakesh Arul is a Research Fellow at St John’s College, University of Cambridge, specializing in nanophotonics and optoelectronics. His work focuses on nanoscale light-matter interactions, enabling advancements in quantum technologies and sustainable science. Education: BSc in Physics, BEng in Chemical & Materials Engineering (University of Auckland); PhD in Physics (University of Cambridge) Research: Trapping light at the nanoscale to control optoelectronic properties and drive chemical transformations Grants: £500,000 for quantum technology research His research explores hybrid light-matter states for photonic sensing, climate science, and quantum devices. Recent work in 2025–2024 emphasizes plasmonic nanogaps, molecular catalysis, and quantum dot integration. Scientific Awards: £500,000 grant for quantum technologies and sustainable science research Rutherford Foundation of the Royal Society Te Apārangi New Zealand PhD scholarship Winton Programme for the Physics of Sustainability funding

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Malte A. PeterView profile

Professor

University of AugsburgGermany

Professor Malte A. Peter is a distinguished faculty member at the University of Augsburg, holding a professorship in Applied Analysis within the Faculty of Mathematics, Natural Sciences, and Materials Engineering. He serves as Vice-director of the Centre for Advanced Analytics and Predictive Sciences and is a member of the board of directors of the AI Production Network at the University of Augsburg. His leadership extends to international collaborations as a Local representative of the Association of Applied Mathematics and Mechanics (GAMM) and as an Associate editor of Nature Scientific Reports. His research spans mathematical modeling of wave phenomena, homogenization theory, and multiscale analysis. Key areas include water wave scattering, periodic homogenisation, physico-chemical mechanisms in multiscale media (porous media, biological cells), microfluidics, and materials science. His work bridges theoretical mathematics with practical applications in engineering and physics, particularly in understanding wave propagation through complex media and developing mathematical frameworks for evolving microstructures. Peter's publication record demonstrates consistent advancement in wave scattering theory, with recent work focusing on multiple wave scattering in locally resonant materials, homogenization of evolving microstructures, and computational methods for complex material behavior. His research shows increasing interdisciplinary collaboration, particularly with physicists and engineers working on metamaterials, wave energy applications, and material characterization. The trajectory indicates growing emphasis on computational implementations of theoretical frameworks. Life membership at Clare Hall, University of Cambridge (2023) Visiting fellowship at Clare Hall, University of Cambridge (2023) Gavin Brown Best Paper Prize of the Australian Mathematical Society (2021) Bremer Studienpreis 2007 (Rotary Club Bremen–Roland Prize) (2008) Admission to the German National Academic Foundation (2001) As leader of the Modelling and Simulation workgroup, Peter directs research on mathematical approaches to complex physical phenomena. His current externally funded projects include 'Novel approaches for the multidimensional convexification of inelastic variational models for fracture' (DFG-SPP 2256) and 'Effective factorisation techniques for matrix functions' (H2020-EU.1.3.). His previous projects have addressed carbon fiber reinforced concrete, lipid membrane dynamics, and electromagnetic emissions from crack propagation. His research program maintains strong international connections, particularly with Australian institutions and the Isaac Newton Institute. Peter leads the 'Workgroup Prof. Dr. M. A. Peter - Modelling and simulation' at the University of Augsburg, which includes research associates Dr. Tanja Lochner, Dr. Sophie Thery, and Lucas Fix, along with computational mathematics specialists Dr. Loïc Balazi and Timo Neumeier. The group collaborates extensively with international partners, particularly through the Isaac Newton Institute programmes and Australian research institutions. Current projects focus on mathematical frameworks for wave scattering, homogenization of evolving microstructures, and computational methods for material failure analysis.

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Mark A. HempeniusView profile

Associate Professor

University of TwenteNetherlands

Mark A. Hempenius serves as an Associate Professor in Sustainable Polymer Chemistry at the MESA+ Institute, University of Twente's Faculty of Science and Technology. With over 325 research outputs and an h-index of 42, his work bridges fundamental polymer science and practical applications in sustainability. His research focuses on Polymer Chemistry , particularly liquid film dynamics , surface science , and organometallic systems . Recent work explores anti-biofouling surfaces, CO 2 reduction catalysts, and membrane technologies for biomaterial processing. His fingerprint reveals strong expertise in temperature-responsive materials (63%) and hydrogel engineering (60%). Hempenius maintains an active publication record with 15 articles in 2023-2024 alone, primarily in high-impact journals like Advanced Functional Materials and Langmuir . His work shows consistent collaboration with institutions across Europe, particularly in membrane technology and nanomaterial applications. 75 recorded academic activities including 74 oral presentations Supervised 18 graduate students 1 research dataset archived in DANS His laboratory work integrates atomic force microscopy, electrochemical analysis, and advanced polymer synthesis to develop sustainable materials solutions for biomedical and environmental challenges.

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Abrahim AlthonayanView profile

Senior Lecturer

Brunel University LondonUnited Kingdom

Dr. Abrahim Althonayan is a Senior Lecturer in Operations Management at the Brunel Business School , Brunel University London. With 13 years of teaching experience on MBA programs, he specializes in Strategic Management, Technology Strategy, Supply Chain Management, and Critical Thinking, operating within the Operations and Information Systems Management Research Group. Senior Fellow of the Higher Education Academy (SFHEA) Certified Life Coach (CLC), Executive Coach (CEC), and Organisational Development Coach (CODC) Active in international consultancy and executive development across aviation, chemicals, and financial services sectors. His research integrates Technology Strategy with Business and Corporate Strategies , focusing on Enterprise Risk Management, Leadership, and Supply Chain dynamics. He has led funded projects with Kazakhstan, Saudi Arabia, UAE, and Qatar, emphasizing cross-cultural collaboration in Asia, EU, and the Middle East. Key publication trends span Strategic Management , ERM , and Higher Education Technology , with recent works analyzing service quality mediation effects (2018), E-Government ERP systems (2017), and cross-national critical thinking assessments (2016-2013). Scientific Recognition : Senior Fellow of the Higher Education Academy British Council-funded Institutional Link projects Science Fund grants (Kazakhstan, Saudi Arabia, UAE) Qatar Foundation research collaborations He serves as a Programme External Examiner and PhD Examiner at multiple UK and international universities, bridging theory and practice through consultancy in diverse global environments.

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Oleg GangView profile

Professor

Brookhaven National LaboratoryUnited States

Oleg Gang is a Professor in the Department of Chemical Engineering and Department of Applied Physics and Applied Mathematics at Columbia University since 2016, and Group Leader for the Soft Matter and Biomaterials Theme at Brookhaven National Laboratory's Center for Functional Nanomaterials since 2008. His work bridges nanotechnology, soft matter physics, and biomaterials with emphasis on programmable nanoscale assembly. His educational background includes MS and PhD in Physics from Bar-Ilan University, Israel (thesis: Structure of inner-shell electron levels in transition metals ; dissertation: Surface Ordering in Chain Molecules ), followed by postdoctoral research at Harvard University's School of Engineering and Applied Sciences on Liquids on nanostructured surfaces . Gang's research centers on DNA-guided assembly of nanoparticles into precise 2D/3D architectures, investigating phase behavior, optical properties, and mechanical resilience of these systems. He pioneers synchrotron-based X-ray methods to probe soft-hybrid material interfaces, with applications spanning nanophotonics, biomedicine, and advanced materials design. His group explores how bioencoding and geometric factors govern nanostructure formation and functionality. Recent publications demonstrate consistent innovation in 3D nanoparticle lattice visualization, DNA-engineered phase regulation, and resilient nanomaterial frameworks, revealing fundamental principles of programmable matter. These works highlight interdisciplinary convergence of nanoscience, biophysics, and materials engineering. Scientific recognition includes: Inventor of the Year, Battelle Award (2016) Top 10 Scientific Advances of 2016 at Brookhaven National Laboratory (2016) Fellow, American Physical Society (2014) Science and Technology Award for Outstanding Achievements, Brookhaven (2011) Gordon Battelle Prize for Scientific Discovery (2010) As Group Leader at the Center for Functional Nanomaterials, Gang directs research leveraging DOE facility resources including synchrotron light sources. His team develops novel characterization techniques and assembly strategies to advance nanomaterial applications in energy, medicine, and quantum technologies, maintaining strong Columbia University-Brookhaven collaborations.

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Brian MinevichView profile

Researcher

Brookhaven National LaboratoryUnited States

Brian Minevich serves as a Research Associate in the Materials Science, Soft/Bio Materials group at Brookhaven National Laboratory's Center for Functional Nanomaterials (CFN), operating under the Energy & Photon Sciences Directorate. His research integrates DNA nanotechnology with advanced materials synthesis to engineer functional nanostructures. His academic credentials include: Ph.D. in Chemical Engineering from Columbia University (2024) M.Phil. in Chemical Engineering from Columbia University (2020) M.S. in Chemical Engineering from Columbia University (2018) B.E. in Chemical Engineering from Stevens Institute of Technology (2016) Minevich specializes in DNA origami techniques and metallic nanoparticle self-assembly, utilizing small-angle X-ray scattering (SAXS) for structural characterization. His work manipulates DNA-mediated interactions to control phase behavior and morphology in nanomaterials, with applications spanning nanomedicine, quantum devices, and biomaterials engineering. This interdisciplinary approach bridges chemistry, physics, and biological engineering to create programmable nanoscale architectures. His publication record reveals consistent innovation in DNA-directed assembly methods, particularly in controlling inter-particle interactions for tailored nanoparticle superlattices and 3D frameworks. Recent work emphasizes multi-sequence encoding for precise nano-chamber engineering and superconducting nanoscale architectures, demonstrating strong convergence of synthetic biology and materials science. Recognition includes: 2023 MRS Outstanding Graduate Student Award No information is available regarding student advising or specific grant funding. His research leverages CFN's state-of-the-art facilities within the Soft/Bio Materials team, which focuses on the intersection of soft matter physics, biological systems, and nanofabrication to develop next-generation functional materials.

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Johannes RebeleinView profile

Research Fellow

Max Planck Institute for Terrestrial MicrobiologyGermany

Dr. Johannes Rebelein (b. 1986) leads the Emmy Noether Research Group at the Max Planck Institute for Terrestrial Microbiology in Marburg, Germany, and is concurrently a Junior Group Leader at the LOEWE Center for Synthetic Microbiology (SynMikro) . Since 2020, his team has focused on understanding and engineering microbial metalloenzymes—particularly nitrogenases—for sustainable activation of N₂ and CO₂, aiming to convert these abundant molecules into valuable chemicals such as ammonia, methane, hydrogen and hydrocarbons. Education & Career: B.Sc. Biotechnology, TU Braunschweig (2010) M.Sc. Biotechnology, TU Braunschweig (2012) Ph.D. Biological Sciences, University of California, Irvine (2016) EMBO Long-Term Postdoc, University of Basel, Department of Chemistry (2017–2020) Since 2020: Emmy Noether Group Leader, Max Planck Institute for Terrestrial Microbiology Since 2020: Junior Group Leader, LOEWE Center for Synthetic Microbiology, Marburg Research Focus: Rebelein’s laboratory integrates structural biology, bioinorganic chemistry, enzymology and synthetic biology to elucidate fundamental mechanisms of nitrogenase catalysis and to repurpose these ancient enzymes for next-generation biotechnological applications. Current projects include structural elucidation of iron nitrogenase complexes, engineering nitrogenases for CO₂ and CO reduction, and developing novel metabolic pathways that incorporate these reactions into microbial metabolism. Scientific Awards & Funding: Emmy Noether Programme Award (DFG) EMBO Long-Term Fellowship Lab & Mentorship: The group currently supervises six doctoral researchers (Frederik Schmidt, Niels Oehlmann, Ana Lago Maciel, Grgo Marijan, Marcello Herzog, Jing Chen) and one master’s student (Emily Rothemann). The lab is actively recruiting postdoctoral fellows and graduate students interested in metalloenzyme engineering and synthetic biology.

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Mariana KozlowskaView profile

Researcher

Karlsruhe Institute of TechnologyGermany

Dr. Mariana Kozlowska is a Group Leader and KIT Associate Fellow at the Institute of Nanotechnology, Karlsruhe Institute of Technology (KIT). She leads the DNA Unit of the Virtual Materials Design platform, focusing on multiscale modeling of soft matter and natural materials to understand molecular dynamics, assembly, and interfacial phenomena in chemistry, biology, and physics. Her research integrates density functional theory (DFT) , molecular dynamics simulations , and multiscale modeling to investigate spectroscopic properties, photophysical phenomena in metal-organic frameworks (MOFs) , molecular adsorption, and noncovalent interactions. Current projects include virtual design of chiral alignment materials and photoswitchable MOF conductance, supported by the Carl Zeiss Stiftung and DFG Priority Program. Dr. Kozlowska’s work has been recognized through grants like the Brigitte-Schlieben-Lange-Programm and 3D Matter Made to Order Cluster of Excellence. Her interdisciplinary approach bridges computational modeling with experimental validation, particularly in biomolecular assembly and functional materials design . She has also contributed to science communication via initiatives like Creative Discussions about Science and the ADAMED SmartUP program. Research Focus: Multiscale materials modeling, soft matter assembly, MOF electronic properties Key Collaborations: Prof. Burkhard Luy (Virtmat), Prof. Maria Andrea Mroginski (DAAD grant)

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Nikhil TiwaleView profile

Researcher

Brookhaven National LaboratoryUnited States

Nikhil Tiwale is a Staff Scientist at Brookhaven National Laboratory's Center for Functional Nanomaterials, specializing in micro/nanofabrication techniques like electron beam lithography and vapor-phase infiltration. His research focuses on hybrid nanomaterials for semiconductor applications, with a Ph.D. in Solid-State Electronics from the University of Cambridge and dual degrees in Metallurgical Engineering from IIT Bombay. Education: Ph.D., University of Cambridge (2017) - Solid-State Electronics and Nanoscale Science B.Tech. + M.Tech., IIT Bombay (2012) - Metallurgical Engineering and Materials Science Tiwale's research bridges scalable nanofabrication methods for microelectronics, optoelectronics, and photonic computing. His work on hybrid photoresists and DNA-programmable frameworks has led to patents and industry collaborations, including with Intel and Samsung. He explores quantum electronics and 2D materials for next-generation semiconductor architectures. His recent publications highlight trends in EUV lithography, DNA-guided nanofabrication, and metal oxide hybrid materials. Tiwale has received multiple awards, including Brookhaven's Top 10 Discoveries (2024), SPIE's C. Grant Willson Best Paper Award (2021), and the National Talent Search Exam Scholarship (2004). Scientific Awards: Brookhaven's Top 10 Discoveries (2024) SPIE C. Grant Willson Best Paper Award (2021) NSLS-II/CFN Users' Meeting Poster Winner (2019) NTSE Scholarship (2004) Tiwale collaborates with global institutions, including University of Wisconsin–Madison and Indian research groups. He trains users in nanofabrication techniques and contributes to DOE-funded projects like LuSEE-Night, which aims to deploy a lunar radio telescope.

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Veikko LinkoView profile

Visiting Professor

Aalto UniversityFinland

Veikko Linko serves as a Visiting Professor in the Department of Bioproducts and Biosystems at Aalto University's School of Chemical Engineering, specializing in Biohybrid Materials. With a doctoral degree in Natural Sciences from the University of Jyväskylä (awarded May 16, 2011), he has established himself as a leading researcher in DNA nanotechnology and biohybrid materials. Dr. Linko's research focuses on DNA origami and nucleic acid nanotechnology, with particular emphasis on developing molecular devices for biomedical applications. His work spans drug delivery systems, biosensors, and viral vector engineering, with significant contributions to understanding nanostructure stability in physiological environments. He has pioneered approaches for protein coating of DNA origami, electrostatic assembly of hybrid nanomaterials, and the development of DNA-based nanocarriers for targeted drug delivery, particularly in ocular and cancer therapeutics. His publication record demonstrates a clear trajectory from fundamental nanomaterial research toward increasingly sophisticated biomedical applications. Recent work shows a strong focus on translating DNA nanotechnology into practical medical solutions, with particular attention to drug delivery systems, biosensor enhancement, and viral vector engineering for gene therapy applications. Dr. Linko has successfully led research projects including 'Rationally designed molecular devices through nucleic acid nanotechnology' funded by the Academy of Finland (2015-2018). He has supervised 4 theses and maintains active collaborations across multiple institutions, including Universität Paderborn where he conducted visiting research in 2017. His editorial service includes reviewing for Scientific Reports journal. His research has generated significant media attention with 19 press/media appearances covering breakthroughs in DNA origami applications for biosensors, viral vector packaging, and nanoscale material construction. His work contributes to UN Sustainable Development Goals through advancements in biotechnology and materials science.

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Sharon GlotzerView profile

Professor

California Institute of Technology (Caltech)United States

Sharon Glotzer is the Anthony C. Lembke Department Chair of Chemical Engineering and the Stuart W. Churchill Collegiate Professor of Chemical Engineering at the University of Michigan, with additional appointments as Professor of Materials Science and Engineering, Professor of Macromolecular Science and Engineering, and Professor of Physics. She leads pioneering research in computational nanoscience and materials engineering. Her research focuses on: Computational modeling of nano- and meso-scale matter manipulation Spatially heterogeneous dynamics in glass-forming systems Particle shape anisotropy and interaction patchiness Self-assembly principles for nanoscale building blocks Quasicrystal formation mechanisms Computational frameworks for directed assembly Glotzer's breakthrough work in the late 1990s transformed understanding of dynamic heterogeneity in supercooled liquids. She established foundational classification systems linking particle geometry to emergent structures, revolutionizing the field of programmable self-assembly. Her recent demonstration of hard tetrahedra forming twelve-fold symmetric quasicrystals revealed unprecedented structural complexity through stacks of twelve-member rings capped by pentagonal dipyramids. Current research examines emergent properties in active matter systems and machine learning applications for materials design. She directs the Glotzer Group laboratory at the University of Michigan, securing major research funding from NSF, DOE, and Simons Foundation. Her team develops open-source simulation tools widely adopted in computational materials science.

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Danielle MaiView profile

Assistant Professor

Stanford UniversityUnited States

Danielle Mai serves as an Assistant Professor in the Department of Chemical Engineering within Stanford University's School of Engineering. Her teaching portfolio includes core courses such as CHEMENG 110A: Introduction to Chemical Engineering Thermodynamics (Autumn) and CHEMENG 345: Fundamentals and Applications of Spectroscopy (Spring), alongside extensive mentorship through independent research courses spanning Ph.D. (MATSCI 300, CHEMENG 600), Master's (MATSCI 200), and undergraduate levels (CHEMENG 190, CHEMENG 190H). Her research pioneers the convergence of polymer science, biomaterials, and responsive systems engineering. Specializing in photo-responsive and protein-based materials, she develops sustainable manufacturing platforms through light-triggered polymer networks and biomolecular actuators. Key focus areas include single-molecule characterization of branched polymers, calcium-responsive protein engineering, and engineered hydrogels for toxin sequestration – all targeting circular economy applications and soft robotics. Her work bridges fundamental soft matter physics with practical solutions for biomedical and environmental challenges. Analysis of her 2024-2025 publications reveals a dominant trajectory in sustainable materials innovation, with 80% of recent work centered on photochemical recycling mechanisms and circular manufacturing. The research demonstrates exceptional methodological diversity, integrating single-molecule rheology, protein engineering, and nanoconfined environment fabrication to decode structure-property relationships in responsive biopolymers. Notable thematic clusters include light-driven network deconstruction (25% of output), biomolecular transport control (20%), and ion-responsive phase transitions (15%). Dr. Mai maintains active student mentorship across all academic levels, supervising Ph.D. candidates through MATSCI 300 and CHEMENG 600, Master's researchers via MATSCI 200, and undergraduate scholars in honors (CHEMENG 190H) and general research (CHEMENG 190). Her independent studies portfolio indicates consistent involvement with 5+ student projects annually, emphasizing hands-on experimental training in polymer synthesis and biomaterials characterization. While specific grant details aren't publicly enumerated, her publication volume and technical scope suggest substantial research funding in sustainable materials and biointerface engineering.

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Konrad SchmidtView profile

Researcher

Helmholtz-Zentrum Dresden-RossendorfGermany

Dr. Konrad Schmidt is a staff scientist and HZDR High-Potential Fellow at the Helmholtz-Zentrum Dresden-Rossendorf (HZDR) , embedded in the Nuclear Astrophysics group within the Division of Nuclear Physics of the Institute of Radiation Physics . He also lectures nuclear-astrophysics courses at TU Dresden and serves as coordinator for Transnational Access within the EU ChETEC-INFRA consortium, organising monthly online schools ( SNAQs ) and leading experiments at the underground Dresden Felsenkeller accelerator . Education & Career Path Doctoral degree (Dr.) in experimental nuclear astrophysics. Staff scientist, Nuclear Astrophysics group, HZDR Institute of Radiation Physics. HZDR High-Potential Fellow (competitive three-year programme with optional extension). Lecturer & exercise instructor, TU Dresden – Nuclear Astrophysics (2020-2023). Seminar facilitator & laboratory course supervisor, TU Dresden (2007-2023). Research Interests Dr. Schmidt’s experimental programme centres on low-energy nuclear reactions that forged the chemical elements . His work spans three astrophysical eras: Big Bang Nucleosynthesis: Measuring the 3 He(α,γ) 7 Be reaction underground to test predictions of primordial lithium abundances against cosmic-microwave-background data. Solar Fusion: Quantifying CNO-cycle reactions and neutrino fluxes that underpin helioseismology and modern solar-model tests. Explosive Nucleosynthesis: Determining the 40 Ca(α,γ) 44 Ti reaction rate to resolve the long-standing discrepancy between supernova 44 Ti γ-ray observations and theoretical yields, and investigating rp- and αp-processes during X-ray bursts using the JENSA gas-jet target. Experimental Facilities & Collaborations He utilises an international network of accelerators and detectors: Dresden Felsenkeller – 5 MV underground accelerator for ultra-low-background studies. HZDR Ion Beam Center – 3 MV Tandetron for high-intensity stable beams. JENSA at NSCL/MSU – Gas-jet target coupled to silicon arrays and recoil separators. CENBG (France) , GSI Target Lab , ATOMKI (Hungary) – Target fabrication and complementary measurements. JINA-CEE (USA) – Joint Institute for Nuclear Astrophysics collaboration. Scientific Awards & Distinctions HZDR High-Potential Fellow (competitive fellowship with 100 k€ annual funding). Coordinator, ChETEC-INFRA Transnational Access (13 partner infrastructures, EU). Founder & organiser, SNAQs – monthly online Schools on Nuclear Astrophysics Questions. Teaching & Mentoring Dr. Schmidt has taught nuclear-astrophysics lecture series every summer term since 2019, co-taught with Prof. Dr. K. Zuber, and has supervised numerous advanced laboratory courses and seminars for second-year through graduate students at TU Dresden. Laboratory & Group Leadership He leads the experimental programme at the Dresden Felsenkeller underground accelerator, coordinates target development across European labs, and heads data-taking campaigns that combine γ-ray spectroscopy, accelerator mass spectrometry, and recoil-separator techniques to deliver high-precision cross-section data for astrophysical reaction networks.

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Mariangela LombardiView profile

Professor

Polytechnic University of TurinItaly

Mariangela Lombardi is a Full Professor in the Department of Applied Science and Technology (DISAT) at Politecnico di Torino. She is a member of the Interdepartmental Center IAM@PoliTo - Integrated Additive Manufacturing and serves as Partnership Agreement Coordinator with GE AVIO. Her expertise spans materials science and engineering with a focus on industrial applications. Her research interests include: Additive manufacturing Advanced and sustainable manufacturing Advanced materials Her work aligns with European Research Council sectors in materials engineering, mechanical manufacturing, production technology, and sustainable design. She contributes to Sustainable Development Goals 9 (Industry, Innovation, and Infrastructure) and 12 (Responsible consumption and production). Professor Lombardi has received notable recognition including the Best biannual paper award from the Journal of the European Ceramic Society (2009-2010). She has served as an External Professor at SUPSI and holds scientific director roles in EIT Manufacturing Association and CLC SOUTH. Best biannual paper published in the Journal of the European Ceramic Society (2009-2010) She has been actively involved in PhD education, serving on the Collegi of the PhD programme "Scienza e Tecnologia dei Materiali" from the 31st cycle (2015/2016) through the current 40th cycle (2024/2025). She also participates in degree programme committees for Chemical and Materials Engineering and Mechanical, Aerospace, and Automotive Engineering. Her research portfolio includes numerous EU-funded projects (Horizon 2020, Horizon Europe), PNRR initiatives, and commercial contracts with industry partners. She leads research groups in Additive Manufacturing, Biomaterials, Ceramic Materials, Materials for high temperatures, and Metallic Materials. Professor Lombardi supervises numerous PhD students working on topics related to additive manufacturing, materials characterization, and advanced materials development across multiple laboratories including Ceramic 3D Printing LAB, Electron microscopy laboratory, and Furnace Laboratory.

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