Xinyang He – Materials Science and Engineering – Best Researcher Award

Assoc. Prof. Dr Xinyang He - Materials Science and Engineering - Best Researcher Award

Associate Professor | Nantong University | China

Assoc. Prof. Dr Xinyang He has built a strong research portfolio in the field of advanced textile-based materials, focusing on flexible thermoelectric devices, wearable electronics, multifunctional fibers, and self-powered sensing technologies. His work emphasizes the integration of thermoelectric materials into fabrics and fibers to develop smart wearables capable of energy harvesting, wireless monitoring, and environmental adaptability. He has contributed significantly to developing multifunctional fabrics that are stretchable, breathable, and durable, offering solutions for personal health monitoring, motion detection, and sustainable energy applications. His publications in top-tier journals such as Nature Communications, Advanced Functional Materials, ACS Nano, and Engineering highlight innovations like waste-cotton-derived thermoelectric aerogels, waterproof and eco-friendly sensing fabrics, and scalable manufacturing techniques for nanofiber yarns. Several of his studies have been recognized as highly cited papers, reflecting the academic influence of his work. Beyond publications, Xinyang He has co-authored a book chapter on electrospun fiber-based thermoelectric devices and actively serves as youth editorial board member and assistant editor for journals such as Chinese Chemical Letters, Carbon Neutralization, and Renewable and Sustainable Energy, while also reviewing for multiple international journals. His research impact is marked by the translation of sustainable materials into practical wearable devices, contributing to both fundamental science and real-world applications. Participation in international conferences and recognition through awards further demonstrate his academic presence and leadership in flexible electronic textiles and sustainable energy harvesting. Xinyang He’s work advances the frontier of textile engineering by merging nanotechnology, materials science, and wearable electronics, shaping future innovations in smart fabrics and energy-efficient sensing systems. Xinyang He has 1,107 citations, 34 documents, and an h-index of 16.

Profile: Scopus | ORCID

Fearuted Publications:

  • Three-dimensional flexible thermoelectric fabrics for smart wearables. Nature Communications.

  • Dual-catalytic polymerization of high-performance PEDOT thermoelectric fabrics for self-powered sensing. Chemical Engineering Journal.

  • Experimental and numerical investigation of tensile failure behavior of triaxial woven fabric composites. Composites Science and Technology.

Peng Gai-Fei | Structural materials | Best Researcher Award

Peng Gai-Fei | Structural materials | Best Researcher Award

Professor at Beijing Jiaotong University

Peng Gai-Fei is an accomplished scholar specializing in high-performance and high-strength concrete, with extensive expertise in fire resistance, frost durability, and concrete recycling. Over decades of academic and professional service, contributions have spanned teaching, research, and industry collaborations. Engagement in numerous committees of prestigious societies reflects leadership in the field. Research has consistently addressed both theoretical and practical aspects of concrete performance, from understanding damage mechanisms to proposing innovative engineering solutions. The body of work has influenced international practices, particularly in structural safety, durability, and sustainable materials use within the civil engineering domain.

Professional Profile

Scopus

Education

Peng Gai-Fei completed formal academic training in Building & Construction Materials, Materials Science, and Civil Engineering from leading institutions in China and Hong Kong. This solid educational background provided a foundation for groundbreaking research in advanced concrete technologies. Each academic phase built on the previous, integrating knowledge of materials at both fundamental and applied levels. Such multidisciplinary expertise has facilitated unique insights into structural materials’ behavior under extreme conditions. The academic journey has been marked by a consistent drive toward solving engineering challenges, which has shaped a distinguished career in research and teaching in civil engineering.

Professional Experience

Peng Gai-Fei has held significant academic and engineering positions, including roles at Tsinghua University, The Hong Kong Polytechnic University, Northern Jiaotong University, and Beijing Jiaotong University. Professional development began as an Assistant Engineer, progressed through lecturer and associate professor positions, and culminated in the current role as a Professor. This progression demonstrates a commitment to both academic growth and the practical application of engineering knowledge. International collaborations and examination of doctoral research reflect a recognition of expertise on a global scale. Contributions span curriculum development, research supervision, and professional training, solidifying an influential presence in engineering education and innovation.

Research Interest

Peng Gai-Fei’s research focuses on the high-temperature properties of high-strength and high-performance concrete, particularly in identifying fire damage mechanisms and developing fire resistance strategies. Additional interests include designing frost-resistant concrete for challenging environments, enhancing shotcrete for tunneling, and understanding crack growth in various concrete types. Work also extends to recycling concrete to promote sustainability, and investigating workability to improve construction efficiency. These research themes bridge fundamental science and applied engineering, resulting in technical measures and materials innovations that advance the field. The approach combines laboratory experimentation, field applications, and theoretical modeling to deliver impactful engineering solutions.

Award And Honor

Recognition for Peng Gai-Fei’s work is reflected through leadership roles in national and international engineering societies. Fellowships, committee memberships, and editorial positions highlight sustained contributions to the advancement of concrete technology. Participation in drafting influential Chinese construction standards demonstrates the trust placed in technical judgment and expertise. Invitations to evaluate doctoral theses at renowned universities further confirm a respected position within the academic community. Membership in global organizations such as the American Concrete Institute and The Concrete Society (UK) underscores an international reputation. These honors signify a career built on excellence, innovation, and commitment to advancing civil engineering practices.

Research Skill

Peng Gai-Fei possesses a diverse range of research skills, including experimental design, advanced materials characterization, and field performance assessment of concrete structures. Expertise includes simulating high-temperature and frost conditions, analyzing microstructural changes, and evaluating mechanical properties post-exposure. Competence in applying rheological models to assess workability enhances practical construction outcomes. The ability to link material science principles with large-scale engineering applications has resulted in optimized material formulations and construction methods. Familiarity with both traditional and modern testing techniques allows for a holistic approach to problem-solving. These skills have underpinned numerous impactful studies that have informed engineering standards and construction practices globally.

Publications

Peng Gai-Fei has authored an extensive portfolio of publications in internationally recognized journals and conference proceedings. Research topics include fire resistance of reactive powder concrete, durability of ultra-high performance concrete, and the influence of thermal shock on fiber-reinforced concrete. Other notable works explore ecological approaches to concrete technology, frost resistance enhancements, and recycled material applications. Contributions often combine rigorous experimentation with practical engineering implications, ensuring relevance to industry stakeholders. Many publications have become reference materials for both researchers and practitioners. The diversity and depth of published work reflect a career dedicated to advancing concrete science and engineering through systematic, evidence-based research.

Title: Effect of calcined red mud on the mechanical properties and microstructure of ultra-high performance concrete
Journal: Construction and Building Materials, 2025

Title: Effects of multi-scale hybrid fibre reinforcement on the mechanical properties of ultra-high-performance concrete
Journal: Magazine of Concrete Research, 2025

Title: Novel cementless ultra-high performance concrete using calcium carbide residue as activator by the aid of combined curing
Journal: Materials and Structures (Matériaux et Constructions), 2025

Title: Coating steel fiber for both CO₂ capturing and strengthening of ultra-high performance concrete
Journal: Journal of Cleaner Production, 2024

Conclusion

Peng Gai-Fei’s career exemplifies the integration of academic excellence, innovative research, and professional leadership in civil engineering. A lifelong dedication to improving the performance, durability, and sustainability of concrete has yielded contributions that influence both national standards and international practices. Extensive publication, mentorship, and committee service demonstrate a commitment to knowledge dissemination and community engagement. The body of work not only advances technical understanding but also addresses pressing engineering challenges. By bridging fundamental research with real-world applications, the career serves as a model of how engineering science can drive practical, impactful solutions for the built environment.

Philippe KARAMIAN-SURVILLE | Composites and Homogenization | Best Researcher Award

Assoc. Prof. Dr Philippe KARAMIAN-SURVILLE | Composites and Homogenization | Best Researcher Award

Associate Professor at Unviversity of CAEN Normandy, France

Philippe Karamian is a Senior Associate Professor at the University of Caen Normandy, France, specializing in Mathematics and Mechanics. With a PhD in Mathematics and Applications (1999) and an Accreditation to Supervise Research (2014), he has made significant contributions to mechanical modeling, numerical simulation, and composite materials. He heads the Mechatronics and Embedded Systems Department at ESIX and is an active researcher at the Nicolas Oresme Mathematics Laboratory. His work spans thin shell theory, homogenization, and high-performance computing, with applications in aerospace and renewable energy.

Professional Profile

Scopus

Education 🎓

  • PhD in Mathematics and Applications, University of Caen Normandy (1999)
  • Accreditation to Supervise Research, University of Caen Normandy (2014)
  • Diploma of Advanced Studies in Mechanics, Pierre and Marie Curie University (1995)
  • Diploma of Advanced Studies in Numerical Analysis, Paris-Sud XI University (1993)
  • Master’s in Mathematics, University of Caen Normandy (1992)
  • Bachelor’s in Mathematics, University of Caen Normandy (1991)

Experience 💼

  • Senior Associate Professor, University of Caen Normandy (2018–Present)
  • Associate Professor, University of Caen Normandy (2002–2018)
  • Head of Mechatronics and Embedded Systems, ESIX (2023–Present)
  • Postdoctoral Researcher, Neurofunctional Imaging Laboratory, Bordeaux (2001)
  • Temporary Teaching and Research Attaché, University of Caen Normandy (1999–2002)

Awards and Honors 🏆

  • Fellow of the Association of Friends of Science, Academy of Sciences (2000)
  • Project Leader, ACCEA (Improvement of Conductivities of Composites for Aerospace Equipment)
  • Elected Member, Nicolas Oresme Mathematics Laboratory Council (2013–Present)
  • Head of Master’s Programs, Mechanical Engineering and Mathematical Engineering (2008–2018)

Research Focus 🔍

Philippe Karamian’s research focuses on:

  • Mechanical Modeling: Thin shells, composites, and slender structures.
  • Numerical Simulation: Finite element methods, domain decomposition, and parallel computing.
  • Homogenization Techniques: Stochastic and deterministic methods for composite materials.
  • High-Performance Computing: OpenMP/MPI environments, C/C++/Fortran programming.
  • Applications: Aerospace, renewable energy, and eco-friendly composites.

Publication Top Notes 📚

  1. Reflection of singularities in inhibited hyperbolic shells.
  2. New numerical results concerning inhibited thin hyperbolic shells.
  3. A model problem for boundary layers of thin elastic shells.
  4. Numerical experiments on the propagation of singularities in thin parabolic shells.
  5. Boundary layers in thin elastic shells with developable middle surface.
  6. Propagation of singularities and structure of layers in shells: Hyperbolic case.
  7. Non-smoothness in the asymptotics of thin shells and propagation of singularities.
  8. Pseudo-reflection phenomena for singularities in thin elastic shells.
  9. Numerical evaluation of the effective elastic properties of 2D overlapping random fiber composites.
  10. An efficient stochastic and double-scale model to evaluate effective elastic properties.
  11. Domain decomposition methods to evaluate effective elastic properties of random fiber composites.
  12. Effects of fiber dispersion on the effective elastic properties of 2D overlapping random fiber composites.
  13. Influence of morphological parameters of a 2D random short fiber composite on its effective elastic properties.
  14. On efficient and reliable stochastic generation of RVEs for analysis of composites.
  15. An efficient and automated 3D FE approach to evaluate effective elastic properties.
  16. Measure of combined effects of morphological parameters of inclusions within composite materials.
  17. The refraction phenomenon of singularities in thin elastic shells with developable mid-surface.
  18. Computation of effective electrical conductivity of composite materials: A novel approach based on analysis of graphs.

Conclusion 🌟

Philippe Karamian is a distinguished academic and researcher with over two decades of expertise in mechanical modeling, numerical simulation, and composite materials. His work bridges theoretical advancements and practical applications, particularly in aerospace and renewable energy. With a strong focus on innovation and sustainability, he continues to lead groundbreaking research and mentor the next generation of engineers and scientists.