第十四届先进陶瓷国际会议
Invited Speakers
S1.Frontiers in Advanced Structural Ceramics and composites: From Daily Use to Extreme Heat
S2.Nano-laminated Carbides, Nitrides and Borides and Their 2D Counterparts (MAX/MAB phases and MXenes/MBenes)
S3. Polymer-Derived Ceramics
S4. Advances in Ceramic Matrix Composites
S5. Porous Ceramics and Their Applications in Energy and Environment
S6.  Advanced Refractories and Traditional Ceramics 
S7.  Transparent Ceramics and Luminescent Materials
S8.  Novel Ceramic Coatings and Technology 
S9.  Advanced Powder Processing and Sintering
S10. Progress in 3D Printing and Additive Manufacturing
S11.  Thermoelectric Materials and Devices
S12. Ferroelectric and Piezoelectric Ceramics
S13.  Ferroelectric and Multiferroic thin films
S14.  Advanced Dielectrics for Energy Storage Applications 
S15. Emerging Photovoltaic Materials and Devices
S16. High-Entropy Ceramics: Innovations in Design, Processing, and Applications for Extreme Environments
S16: High-Entropy Ceramics: Innovations in Design, Processing, and Applications for Extreme Environments

High-entropy ceramics, encompassing a diverse range of materials such as high-entropy oxides, carbides, borides, nitrides, silicides, carbonitrides, and borocarbonitrides, have emerged as a revolutionary class of materials with transformative potential in both structural and functional applications. These materials are characterized by their unique multi-component compositions, which impart exceptional mechanical, thermal, and functional properties, enabling them to thrive in extreme environments. For instance, high-entropy carbides and borides exhibit unparalleled hardness and oxidation resistance, making them ideal for cutting tools and thermal protection systems in aerospace applications, where temperatures can exceed 2,000°C. In energy storage, high-entropy oxides are being explored for their superior electrochemical performance in batteries and supercapacitors, offering enhanced stability and energy density. Meanwhile, high-entropy nitrides and carbonitrides are gaining attention for their exceptional wear resistance and thermal conductivity, making them suitable for advanced coatings and thermal management systems.
We are delighted to announce the Session on High-Entropy Ceramics: Innovations in Design, Processing, and Applications for Extreme Environments as part of the upcoming CICC-14 conference. This session will serve as a premier platform for researchers to showcase and discuss the latest advancements, challenges, and future directions in the field of high-entropy ceramics. It will delve into the design, modeling, processing, and applications of these materials, with a particular emphasis on their mechanical, thermal, and functional properties, applications in energy and environmental technologies, and transformative potential in aerospace, defense, and cutting-edge industries. technologies.

Session Scope & Themes
The core agenda of this session encompasses the following pivotal topics:
1.Design and Modeling of High-Entropy Ceramics
Novel design rules and computational modeling approaches for high-entropy ceramics, leveraging machine learning for high-throughput design and optimization to advance material discovery.
2.Advanced Processing Techniques
Advanced synthesis and processing techniques, address scalability and microstructure control through improved powder synthesis, sintering, and process optimization, overcoming phase segregation and density challenges to enhance high-entropy ceramics performance for extreme environments and advanced applications.
3.Mechanical, Thermal, and Functional Properties
Outstanding thermomechanical behavior, fracture toughness, wear resistance, and high-temperature stability for extreme environments, alongside unique electrical, magnetic, and optical properties, enabling multifunctional applications in advanced technologies.
4.High-Entropy Ceramics for Energy and Environmental Applications
Energy storage and conversion in batteries, supercapacitors, and fuel cells, providing thermal management through barrier coatings and insulation, and offering catalytic properties with environmental durability.
5.High-Entropy Ceramics in Aerospace, Defense, and Cutting-Edge Technologies
Ultra-high-temperature applications, mechanical performance enhancements, and extreme environment durability of high-entropy ceramics, leveraging oxidation resistance, thermal stability, and reliability to advance aerospace, defense, and nuclear technologies.
6.Future Directions, Challenges, and Industrial Adoption
Future directions in high-entropy ceramics focus on emerging compositional spaces, scalable synthesis, industrial integration, sustainability, advanced characterization, and collaborative innovation to address challenges in reliability, performance, and environmental impact while driving breakthroughs and commercialization across aerospace, energy, and defense sectors.

Organizers:
Yujin Wang, Harbin Institute of Technology, China
Yanchun Zhou, Zhengzhou University, China
Guo-Jun Zhang, Donghua University, China
W.G. Fahrenholtz, Missouri University of Science and Technology, USA
Jian Luo, University of California, San Diego, USA
Nita Dragoe, University Paris-Saclay, France
Hailong Wang, Zhengzhou University, China
Ji Zou, Wuhan University of Technology, Wuhan, China

Point of Contact:
Prof. Yujin Wang, Harbin Institute of Technology, wangyuj@hit.edu.cn
S17.  Nanoscale Characterization of Ceramic materials
S18. Microwave Dielectric Ceramics and applications
S19.  Ionic and Mixed Conducting Ceramics 
S20.  Advances in Bioceramics 
S21.Data Driven and AI for Ceramics and Composites 
S22. Multifuctional Nanomaterials and Heterostructures for Sensing Devices
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