Piotr Koniorczyk is a full professor at the Military University of Technology, specializing in mechanical engineering and thermal sciences. His research focuses on thermophysical properties of materials, heat transfer in engineering systems, and advanced materials for aerospace and defense applications. He has published over 91 articles and supervised 12 promoted theses, demonstrating expertise in topics such as thermal analysis of metals, composite materials, and thermal management systems. His work includes studies on steel barrel heat transfer in firearms, thermophysical properties of tool steels, and passive cooling solutions for high-power electronics. Notable projects involve numerical simulations of heat transfer in rocket engines and gun barrels, as well as investigations into phase-change materials for thermal energy storage. His research has contributed to advancements in materials science, thermal engineering, and aerospace technology.
Dr. Chris Tighe is an Associate Professor in the Department of Chemical Engineering at Imperial College London, where he leads the Process Safety & Intensification (PSI) research group. His work focuses on high-pressure chemical processes, catalyst deactivation mechanisms, and industrial safety engineering. He teaches Safety & Loss Prevention , integrating his research insights into pedagogy. Dr. Tighe's research spans 25 years across academia and industry, emphasizing scalable nanomaterial synthesis via continuous hydrothermal methods, energy storage systems (e.g., Li-ion batteries), and reaction safety analytics. His group develops process intensification technologies to enhance safety and efficiency in chemical manufacturing. Recent work includes studies on CO₂ permeability in polymers at extreme pressures, catalyst deactivation pathways in asymmetric reactions, and blue hydrogen production via novel reactor designs. His team collaborates with industry on pilot-scale implementations of nanostructured materials for catalysis and photocatalysis. He actively mentors doctoral researchers through UKRI DTP programs and oversees Imperial’s PhD admissions for energy and process engineering specializations. His lab facilities include advanced high-pressure reactors and in situ characterization tools for nanomaterial analysis.
Dr. Shideh Kabiri Ameri serves as Associate Professor in the Department of Electrical and Computer Engineering at Queen's University, where she joined in September 2018 after completing postdoctoral research at the University of Texas at Austin. Her interdisciplinary expertise bridges nanomaterials engineering and biomedical applications, with particular focus on developing imperceptible wearable sensors for continuous health monitoring. Her educational foundation includes: PhD in Electrical Engineering (2015) from Tufts University Master's and Bachelor's degrees in Physics (solid state) AS degree in Medical Laboratory Sciences Dr. Ameri's research program centers on 2D material-based electronic devices for wearable bioelectronics, human-machine interfaces (HMI), and mobile healthcare systems . Her lab pioneered graphene electronic tattoos (GETs) that achieve unprecedented skin conformity while recording high-fidelity physiological signals. Current work emphasizes ultrasoft hydrogel-based sensors that eliminate motion artifacts and enable months-long wear without skin irritation, representing a paradigm shift from conventional rigid medical devices toward truly imperceptible health monitors. Analysis of her 40+ publications reveals a strategic evolution from fundamental nanomaterial characterization toward clinically viable systems. Recent work (2021-2025) demonstrates increasing sophistication in multimodal sensing (simultaneous ECG/EEG/temperature), reusable sensor architectures , and wireless power integration . The trajectory shows clear progression from lab prototypes to FDA-pipeline devices, particularly in cardiac and neurological monitoring applications. Her scientific recognition includes: Rising Star in EECE 2017 award Dr. Ameri leads the Ameri Nano Research Group which operates advanced nanofabrication facilities for developing next-generation bioelectronic interfaces. Her research has attracted significant media attention from BBC, IEEE Spectrum, and Phys.Org, highlighting real-world impact in remote patient monitoring. The group actively collaborates with medical institutions to translate innovations into point-of-care diagnostics, with current projects focusing on in-ear physiological monitors and strain-neutralized neural recording systems. The research team maintains strong industry partnerships for commercializing soft bioelectronics, with particular emphasis on creating accessible health monitoring solutions for underserved communities through low-cost manufacturing approaches.
Hui (Claire) Xiong is a Professor at the Micron School of Materials Science and Engineering, Boise State University , specializing in advanced functional nanomaterials for sustainable energy systems . Prior to Boise, she held postdoctoral positions at Argonne National Laboratory and Harvard University , focusing on energy storage electrodes and micro-solid oxide fuel cells. Education : Ph.D. in Analytical Chemistry and Electrochemistry (University of Pittsburgh), B.E./M.S. in Applied and Inorganic Chemistry (East China University of Science and Technology) Her research interests revolve around sustainable energy materials , particularly lithium/sodium-ion batteries , solid electrolytes , and defect-driven metal oxides . Her work has produced over 134 research outputs, including key contributions to TiO 2 nanotubes , FeSe/FeS heterostructures , and ion irradiation effects on electroceramics. Notable scientific awards include the Andrew Mellon Predoctoral Fellowship (2006) Royal Society of Chemistry Fellowship (2023) She has led multiple NSF-funded projects on topics like mixed ionic/electronic conductivity and defect-engineered metal oxides , while her publications highlight trends in solid-state battery interfaces , heterostructure engineering , and electrochemical characterization .
Kevin T. Turner is the John Henry Towne Department Chair and Professor of Mechanical Engineering and Applied Mechanics at the University of Pennsylvania's School of Engineering and Applied Science, with a secondary affiliation in Materials Science and Engineering. He leads the Turner Research Group, which investigates mechanics, materials, and manufacturing challenges, specializing in micro/nano-systems, adhesion, fracture mechanics, and advanced manufacturing. His research focuses on three primary thrusts: Materials with programmable mechanical properties (e.g., electroadhesives for robotics) Fracture and adhesion in structured/heterogeneous materials Printed and flexible sensors (including biodegradable cellulose-based variants) Key projects include tunable adhesion surfaces, architected materials for damage tolerance, and additive manufacturing stress control. Turner's recent publications (2022-2023) demonstrate a strong emphasis on adhesion mechanics, robotics applications, and nanomaterial design. Trends include bio-inspired structures, machine learning optimization, and interdisciplinary approaches bridging mechanics with biomedicine and agriculture. Computational methods like physics-informed neural networks are increasingly utilized for material property analysis. He directs an active research laboratory developing novel sensor technologies and materials systems, collaborating widely across engineering and applied science disciplines.
Sébastien Fortin is a Full Professor at the Faculty of Pharmacy, Laval University, and a researcher at the Research Center of the CHU of Quebec – Laval University, where he leads the Oncology Axis. He is actively engaged in both teaching and research, with a strong focus on targeted cancer therapies and pharmaceutical chemistry. Bachelor's degree in Chemistry, Laval University Master's degree in Pharmacy, Laval University Joint Doctorate in Pharmacy (Laval University) and Life and Health Sciences (Auvergne 1 University, France) Postdoctoral Internship in Pharmacy, Laval University Postdoctoral Internship in Chemistry-Biology, University of Quebec in Trois-Rivières His research interests lie at the intersection of fundamental and translational science, particularly in the development of innovative anticancer agents. His work emphasizes targeted therapies , with projects focusing on prodrug development for breast cancer , characterization of amino acid transporters , and novel agents for acute myeloid leukemia (AML) . He employs a multidisciplinary approach combining pharmaceutical chemistry, molecular and cellular biology, pharmacology, and molecular modeling. The recent publications highlight a consistent trajectory in CYP1A1-targeted prodrugs , antimitotic agents , and metabolic inhibitors like DHODH . His team has developed novel families of compounds such as N-alkylphenylimidazolidones (AIMZs) and phenyl ureidobenzenesulfonates (PUB-SOs), demonstrating selective cytotoxicity and differentiation-inducing properties in cancer cells. These studies span from chemical synthesis to in vitro and in vivo evaluation, reflecting a robust drug discovery pipeline. Bourse de carrière (niveau junior 2), FRQS (2023–2026) Bourse de carrière (niveau junior 1), FRQS (2018–2022) Prix de la meilleure thèse en cotutelle franco-québécoise (2011) Prix de recherche GlaxoSmithKline/AFPC (2012) IRSC Postdoctoral Fellowship (2012) FRQS Doctoral Fellowship (2007–2009) Dr. Fortin supervises several graduate students and has secured significant funding from national agencies including NSERC, CIHR, and Fonds de recherche du Québec. His research is supported by infrastructure grants from the Canada Foundation for Innovation (CFI). He collaborates with professionals and students in his research team, advancing projects from molecular design to preclinical validation. His lab is involved in cutting-edge work on molecular probes for amino acid transporters , precision oncology , and drug delivery systems , positioning his research at the forefront of modern pharmaceutical sciences.
Dr. Yue (Jessica) Wang is an Associate Professor of Chemical and Materials Engineering at the University of California, Merced. She holds additional appointments in the Chemistry and Biochemistry and Bioengineering departments, reflecting her interdisciplinary expertise. Her research focuses on creating biomimetic electronic materials that replicate biological systems' mechanical and physiological properties. Ph.D., Inorganic Chemistry (2014) - University of California, Los Angeles B.S., Chemistry (2008) - University of California, Los Angeles Dr. Wang's laboratory develops advanced materials with four core research areas: (1) dynamically adaptive electronic materials, (2) additive manufacturing of functional metamaterials, (3) organic reconfigurable materials, and (4) slime mold-aided bio-designed networks. These innovations enable patient-specific biomedical devices capable of detection, sensing, and stimulation, while prioritizing environmental and intellectual sustainability. The lab's recent research trends include 3D-printed conductive polymers, strain-invariant electronic foams, and graphene-based nanomaterials. This work intersects soft electronics, biomimicry, and advanced manufacturing techniques to create materials with unprecedented mechanical and electrical properties. Dr. Wang's team combines expertise in polymer synthesis, device fabrication, and mechanical characterization, operating at the intersection of chemistry, engineering, and biotechnology. She can be reached at yuewang@ucmerced.edu or +1 (209) 228-3611.
Marcus Bosenberg, MD, PhD, is the Anthony N. Brady Professor of Dermatology, Pathology and Immunobiology at Yale School of Medicine. He serves as Director of the Yale SPORE in Skin Cancer, Director of the Yale Center for Immuno-Oncology, Co-Leader of the Cancer Immunology Program at Yale Cancer Center, and Director of the Center for Precision Cancer Modeling. As a practicing dermatopathologist at Yale Medicine, he specializes in diagnosing skin cancers and inflammatory disorders. Education & Training: BA, Cornell University (1986) PhD, Cornell University Medical College (1993) MD, Cornell University Medical College (1994) Residency: Brigham & Women's Hospital Fellowships: Harvard Medical School Dermatopathology, Dana-Farber Cancer Institute Research Focus: Dr. Bosenberg's laboratory investigates melanoma biology, anti-cancer immune responses, metastasis mechanisms, and therapeutic development. His team pioneered mouse models for melanoma progression and therapy testing, with strong emphases on tumor microenvironment interactions, epigenetic regulation of immunity, and precision cancer modeling. Key research areas include BRAF/MEK signaling pathways, DNA methylation in immunotherapy resistance, and nanoparticle-based drug delivery systems. Publication Trends: His recent articles (2023-2025) demonstrate a strong focus on melanoma immunotherapy resistance mechanisms, tumor microenvironment modulation, and diagnostic innovations. Epigenetic regulation (e.g., DNA methylation, Setdb1) emerges as a recurrent theme, alongside novel approaches to enhance T-cell responses and overcome immune evasion. Nanotechnology applications for targeted drug delivery and advanced molecular diagnostics feature prominently in his translational work. Awards: Yale School of Medicine Basic Science Research Prize (2022) Mentoring & Leadership: Dr. Bosenberg mentors undergraduate, graduate, and medical students along with postdoctoral fellows. He directs multiple research centers and leads the Yale SPORE in Skin Cancer, focusing on translational melanoma research. His laboratory develops patient-derived tumor models for renal cell carcinoma and melanoma studies.
Associate Professor Nicolas Bordenave is a cross-appointed member at the School of Nutrition Sciences, University of Ottawa, focusing on molecular interactions between macronutrients and phytonutrients in food systems. His research explores how these interactions affect glycemic response and phenolic bioavailability in cereal, fruit, and vegetable-based systems. Education: Ph.D. in Food Science (specific institution not mentioned in text) Prior Roles: Research positions at PepsiCo (Chicago, UK) and postdoctoral training at Purdue University's Whistler Center Professional Involvement: Board member of Feeding Tomorrow (IFT Foundation), contributor to Radio Canada's Moteur de recherche program His research spans starch/phenolic interactions , nutritional functionality , and biodegradable packaging materials , with applications in metabolic health and food formulation . Recent publications highlight trends in beta-glucan viscosity , starch digestibility , and phytonutrient delivery . Scientific contributions include methodological advancements in glycemic response assessment and chitosan-based packaging . Key collaborations include work with researchers at Purdue, PepsiCo, and industry partners. His lab investigates macronutrient-phytonutrient interactions , nutritional biochemistry , and functional food design . Current projects align with improving metabolic health through optimized food structures.
Bodo Wilts is a Professor at the University of Salzburg in the Chemistry and Physics of Materials department. His research focuses on biophotonics , structural color , and photonic nanostructures in biological systems, particularly insects and beetles. Education Habilitation in Physics, University of Freiburg (2020) PhD in Physics, Rijksuniversiteit Groningen (2013) Diploma in Physics, University of Göttingen (2009) Research Trends Wilts’s recent publications highlight interdisciplinary work bridging biological optics , nanotechnology , and biomimetic materials . Key themes include: Photonic networks in insects (disordered vs. ordered structures) Self-assembly of block copolymers for advanced materials Applications of structural coloration in diagnostics and sensing 3D imaging of photonic nanostructures using X-ray tomography Projects Ra-Dia-M (2025–2026): Label-free SERS diagnostics for melanoma cells Unraveling butterfly scale morphogenesis (2022–2026): Genetics and biomechanics of butterfly scales High-aspect ratio optical structures (2024–2025): Simulation and characterization of optical metamaterials Activities Keynote on Dis/ordered photonic networks in insects (2024) Lectures on Multifunctional colors and nanostructure formation (2024) Presentations on Amorphous photonic networks (2023–2024)
Dr. Hongbin Liu is a Senior Lecturer at the Department of Informatics, King’s College London, UK, affiliated with the Centre for Robotics Research. His work focuses on robotic tactile sensing, soft robot design, and haptic exploration. Research Interests: Robotic tactile sensing Learning objects by touch Soft and flexible robot design Modelling of soft interactions Dr. Liu’s recent publications highlight advancements in robotics and sensor technology , particularly in tactile perception, medical device design, and continuum robot navigation. His work integrates Bayesian classifiers for autonomous object recognition, polymer-based optical waveguides for triaxial tactile sensors, and deep learning for medical diagnostics. Collaborations span institutions like Imperial College London, The University of Hong Kong, and Medical University of Vienna. Professional Affiliation: King’s College London Department of Informatics Centre for Robotics Research (research group)
Dr.-Ing. Horst Hill is a Lecturer for Additive Manufacturing at Georg Agricola University of Applied Sciences (THGA) since March 2022, where he teaches in the Master's program "Material Engineering & Industrial Heritage Conservation". Additionally, he serves as Head of Special Materials at Deutsche Edelstahlwerke GmbH (since 2017), overseeing approximately 70 employees in the development of specialty steels and materials. Education: Diploma in Mechanical Engineering (specialization in materials engineering) from Ruhr University Bochum (2003-2008, overall grade: 1.5) Dr.-Ing. (PhD) from Ruhr University Bochum, Department of Materials Science (2008-2011), with dissertation on "Novel metal matrix composites (MMC) to increase the service life of wear-stressed tools in the polymer processing industry" (grade: very good) Research Interests: Dr. Hill's expertise lies at the intersection of advanced materials science and manufacturing technologies. His primary research focuses on additive manufacturing processes , particularly the development of new materials for 3D printing applications. He specializes in metal matrix composites (MMCs) with enhanced wear and corrosion resistance, specialty steels for demanding industrial applications, and powder metallurgy techniques for producing high-performance materials. His work bridges fundamental materials research with practical industrial applications in polymer processing, tooling, and energy sectors. His research encompasses the entire value chain from material design and process optimization to application-specific performance evaluation, with particular emphasis on sustainable manufacturing practices and resource efficiency in materials production. Research Trends: Dr. Hill's publication record demonstrates a clear evolution from fundamental materials research to applied additive manufacturing technologies. His early work (2009-2012) focused on understanding sintering behaviors, microstructural design, and performance optimization of metal matrix composites and plastic mold steels. From 2015 onwards, his research shifted toward additive manufacturing applications, exploring novel materials for 3D printing, graded material structures, and process-specific material developments. Recent publications (2021-2022) showcase cutting-edge work in high-strength austenitic materials for additive manufacturing and compositionally graded structures, reflecting the rapid advancement in the field. Professional Affiliations: Georg Agricola University of Applied Sciences (THGA) - Lecturer for Additive Manufacturing (since 03/2022) AiF e.V. - Reviewer for Subgroup 7.4 "Additive Manufacturing" (since 01/2022) Düsseldorf University of Applied Sciences (HSD) - Teaching assignment in Materials Engineering (09/2021-02/2022) Deutsche Edelstahlwerke GmbH - Various roles including Head of Special Materials (since 2012) Industrial Leadership: At Deutsche Edelstahlwerke, Dr. Hill leads the Special Materials division with approximately 70 employees, focusing on developing and producing high-performance specialty steels and metal matrix composites. His team works on innovative solutions for demanding applications in polymer processing, tooling, and other industrial sectors, combining advanced metallurgy with cutting-edge manufacturing technologies.
Elizabeth (Liza) Lee is an Assistant Professor at the Samueli School of Engineering , University of California, Irvine (UCI), with joint appointments in Materials Science and Engineering and Chemical and Biomolecular Engineering . Her research program focuses on theory and computational modeling of materials formation, breakdown, and transport to design sustainable solutions for quantum and energy technologies. Ph.D. , MIT, Chemical Engineering M.S. , MIT, Chemical Engineering Practice B.S./B.A. , Johns Hopkins University, Chemical and Biomolecular Engineering and Chemistry Lee’s research bridges ab initio calculations , machine learning , and molecular simulations to study functional materials. Key areas include catalytic plastic waste deconstruction , quantum defects in semiconductors , and computational method development using statistical mechanics and machine learning. Her work has implications for sustainable synthesis , quantum information science , and energy technologies . Her recent publications (2025–2024) span nanostructure modeling , electrocatalysis , machine learning in materials science , and solid-state electrolytes , reflecting her interdisciplinary approach. Notable awards include the NSF CAREER Award , UCI Samueli Faculty Development Chair , and DOE ASCR Leadership Computing Challenge Award . NSF CAREER Award UCI Samueli Faculty Development Chair DOE ASCR Leadership Computing Challenge Award NSF Graduate Research Fellowship AIChE Electronics and Photonics Materials Award UCI Engineering Student Council’s Professor of the Year Award Maria Lastra Postdoctoral Mentor Award
Prof. Dr.-Ing. Katharina Schmitz serves as Institute Director and Vice Dean at the Institute for Fluid Power Drives and Systems, RWTH Aachen University. Her leadership within the Production Technology Cluster and extensive contributions to fluid power engineering establish her as a leading authority in mechanical engineering research and education. Her research spans fluid power systems, hydraulic component design, tribology, and physics-informed machine learning applications. She pioneers sustainable propulsion solutions through bio-hybrid fuels research while addressing fundamental challenges in polymer material behavior under hydraulic stresses. Current work focuses on carbon-neutral heavy-duty transportation, physics-based neural networks for lubrication modeling, and advanced control systems for electro-hydraulic actuators. Analysis of her 15 most recent publications reveals a dominant trend toward integrating physics-based modeling with deep learning to solve complex engineering problems. Her team consistently develops novel frameworks for cavitation prediction, flow rate determination, and material compatibility assessment - significantly advancing fluid power system reliability, efficiency, and digitalization. Scientific recognition includes: GfT Förderpreis 2023 for experimental and simulative investigation of partially hydrostatic relieved contacts in variable speed axial piston machines As head of the Institute for Fluid Power Drives and Systems, she leads cutting-edge research in sustainable fluid power technologies. The institute maintains strong industry partnerships while driving innovation in hydraulic component design, digital twins for condition monitoring, and next-generation propulsion systems through its position within RWTH Aachen's Production Technology Cluster.
Leif Asp is a Professor in Lightweight Composite Materials and Structures at Chalmers University of Technology, working within the Division of Materials and Computational Mechanics. His research focuses on developing innovative materials that serve multiple functions, particularly structural batteries that can simultaneously store energy like a battery and carry mechanical load. Professor Asp's primary research interests include: Structural batteries and multifunctional composites Carbon fiber-based energy storage materials Synthesis, characterization, and design of multifunctional materials Mechanical and electrochemical properties of composite materials Computational modeling of structural battery systems Sustainable manufacturing and life cycle analysis of structural power composites His work bridges the gap between traditional structural materials and energy storage systems, creating what's often referred to as "massless energy" solutions. These materials could revolutionize industries like electric vehicles and aerospace by reducing overall weight while maintaining or increasing energy capacity. Analysis of Professor Asp's recent publications reveals a strong focus on practical implementation of structural battery technology. His research spans fundamental material science (characterizing carbon fibers for battery electrodes), engineering design (optimizing structural battery components), and systems integration (assessing viability for electric vehicles and aerospace applications). A notable trend is the increasing emphasis on sustainability, with several recent papers addressing recycling, life cycle analysis, and green synthesis methods for structural battery components. Professor Asp leads multiple significant research projects funded by prestigious organizations including the United States Air Force, Swedish Research Council, European Commission, and Swedish Innovation Agency. These projects focus on advancing structural battery technology from laboratory concepts toward practical applications. His research group appears to be highly collaborative, with numerous publications featuring co-authors from various institutions and disciplines, reflecting the interdisciplinary nature of structural power composites research.
