Prof. Shigeru Horii
Kyoto University of Advanced Science, Japan

Speech Title: Bi-axial alignment of REBa₂Cu₃O₇ superconductors in the oscillation type modulated rotating magnetic field

Abstract: Epitaxial growth is the typical and practical process for the formation of triaxial aligned and densified microstructures, which is used also for the production of REBa₂Cu₃O₇ (RE123) superconductor (SC) tapes. However, one of the issues in the SC tape is its high material cost. Recently, a modulated rotating magnetic field (MRF) has been reported as the magnetic field in which the triaxial/biaxial aligned microstructure can be formed for grains with triaxial magnetic anisotropy. In principle, this MRF technique is a room-temperature process and is useful for fabrication of not only triaxially aligned polycrystals but also composites containing triaxially aligned fillers. Moreover, there are various types of MRF at the current stage, such as intermittent rotation (IM) type [1], angular-speed modulation type [2], linear-drive type [3] and so on. In this work, our group focuses on the oscillation (OS) type MRF [4]. Its advantages are that the OS process includes both static field and rotating field components, the two components are determined by the oscillation angle (胃) systematically, and the SC electromagnet with 10 T is available. Our group investigated the biaxial orientation degrees of Y123 and Er123 powder samples aligned under the OS type MRF with controlling 胃 and magnetic field strength.
[1] Horii et al., J. Appl. Phys. 115 (2014) 113908. [2] Fukushima, Horii et al., Appl. Phys. Exp. 1 (2008) 111701. [3] Horii et al., J. Cer. Soc. Jpn. 126 (2018) 885. [4] Horii et al., J. Cer. Soc. Jpn. 132 (2024) 675.

Biography: Shigeru Horii is currently a Professor and a Department Head in the Faculty of Engineering at the Kyoto University of Advanced Science (KUAS), Kyoto, Japan. He obtained Dr. Eng. from the Nagoya University, Nagoya, Japan, in 1999. He worked at the Institute of Solid State Physics of the University of Tokyo, Tokyo, as a post-doctoral fellow of JSPS from 1999 until 2000. He joined the Department of Superconductivity/Applied Chemistry of the University of Tokyo as an Assistant Professor from 2000 until 2009, and then worked at the Kochi University of Technology, Kochi, as an Associate Professor from 2009 until 2013. He worked at the Graduate School of Energy Science of the Kyoto University, Kyoto, as an Associate Professor from 2013 until 2019. He joined the Faculty of Engineering of KUAS at 2019 and is focusing on triaxial magnetic alignment in layered functional materials and designing of magnet arrays for the generation of modulated rotating magnetic fields as research topics.

 

Prof. Dr. Osman Adiguzel
Firat University, Elazig, Turkey

Biography: Dr. Osman Adiguzel graduated from Department of Physics, Ankara University, Turkey in 1974 and received PhD- degree from Dicle University, Diyarbakir-Turkey. He studied at Surrey University, Guildford, UK, as a post doctoral research scientist in 1986-1987, and his studies focused on shape memory alloys. He worked as research assistant, 1975-80, at Dicle University and shifted to Firat University in 1980. He became professor in 1996, and he has been retired due to the age limit of 67, following academic life of 45 years.
He published over 80 papers in international and national journals; He joined over 120 conferences and symposia in international and national level as Plenary Speaker, Keynote Speaker, Invited speaker, speaker or Poster presenter. He served the program chair or conference chair/co-chair in some of these activities. In particular, he joined in last six years (2014 - 2019) over 60 conferences as Speaker, Keynote Speaker and Conference Co-Chair organized by different companies in different countries.
Additionally, he retired at the end of November 2019, and contributed with Keynote/Plenary Speeches over 180 Virtual/Webinar Conferences, in the coronavirus outbreak in four year of his retirement, 2020 and 2023.
Dr. Adiguzel served his directorate of Graduate School of Natural and Applied Sciences, Firat University in 1999-2004. He supervised 5 PhD- theses and 3 M. Sc theses. He is also technical committee member of many conferences. He received a certificate which is being awarded to him and his experimental group in recognition of significant contribution of 2 patterns to the Powder Diffraction File Release 2000. The ICDD (International Centre for Diffraction Data) also appreciates cooperation of his group and interest in Powder Diffraction File.
Scientific fields of Dr. Adiguzel: Shape memory effect and displacive phase transformations in shape memory alloys and other alloys, molecular dynamics simulations, alloy modeling, electron microscopy, electron diffraction, x-ray diffraction and crystallography.

 

Prof. Ivana Salopek Cubric (President of TC Ergonomics at the Croatian Standards Institute)
University of Zagreb, Croatia

Speech Title: Material Durability and Performance: Assessing Key Properties for Enhanced Functionality

Abstract: Durability and performance of materials are crucial for the reliability and efficiency of products in various industries. Key properties such as mechanical strength, thermal stability, wear resistance, and adaptability to the environment play a crucial role in longevity and functional effectiveness. In the field of functional apparel, properties such as moisture wicking, breathability, stretchability, and abrasion resistance determine effectiveness and longevity, making material selection critical to optimizing the wearer's performance. To gain a comprehensive insight into the behavior of materials, the influence of different polymer yarns and their changes under combined ageing factors must be investigated. While recycled polyester yarn has advantages in terms of sustainability and higher tensile strength, the results suggest that conventional polyester yarn is more advantageous due to its higher abrasion resistance, smoother surface texture, and better elasticity retention after ageing. Research on polymer aging also highlights the impact of environmental influences on key material properties such as topography, thickness, moisture management, elongation and bursting strength, showing that thickness increases, elongation decreases and moisture absorption is impaired in sun-exposed materials. However, spectroscopic investigations (ATR-FTIR) indicate that the chemical structure of the polyester has not demonstrably changed. These findings emphasize the need for product-centred ageing protocols and innovative material design to ensure long-lasting, high-performance solutions, especially in the competitive sportswear industry.

Biography: Full Professor at the University of Zagreb, Faculty of Textile Technology, and President of TC Ergonomics at the Croatian Standards Institute. She holds two faculty degrees in textile engineering and journalism, along with a PhD in technical sciences. With a prolific academic career, she has authored over 250 publications in journals, books, and conference proceedings and has served as editor for six international scientific conference proceedings. She has led and collaborated on numerous national and EU-funded projects and actively reviews international competitive projects for various funding agencies. Recognized for her contributions to research and education, she has received multiple awards for scientific and teaching excellence. Her leadership roles include serving as President of the Croatian Ergonomics Society, Head of the Extraordinary Graduate Studies, Head of the Department of Textile Design and Management, and Chair of Public Relations. Additionally, she is a member of the editorial board of eight scientific journals.

Prof. Ahmad Zuhairi Abdullah
Universiti Sains Malaysia, Engineering Campus, Malaysia

Speech Title: Role of pore geometry of Ca1+xAl1-xLaxO3 composite catalyst supported on MCM-41 in selective glycerol etherification to lower molecular weight polyglycerols as potential oxygenated fuel additives

Abstract: Glycerol is abundantly produced by biodiesel as well as other downstream oleochemical industries and its industrial uses are rather limited to the extent that it is regarded as a waste to be managed. Polyglycerols have high potential to be used as an oxygenated additives in fuel in which they are compounds that contain oxygen to be blended with fuels to improve combustion efficiency and reduce emissions. Especially diglycerol and triglycerol, they are potential products towards making fuels greener and also of industrial importance in many other applications. However, selective production of through catalytic means often subject to a few drawbacks. A novel heterogeneous catalyst was prepared by means of a co-precipitation method and its activity in selective glycerol etherification was demonstrated. Lanthanum (La):calcium (Ca) ratio, temperature, and the duration of calcination positively influenced the conversion of glycerol. A regression model was established to predict the effect of calcination conditions and La:Ca ratio on glycerol conversion. After 8 h of reaction, a conversion of 81.6 % was achieved under atmospheric pressure at 250 鎺矯, 3.5 wt. % of catalyst and with a La to Ca ratio of 1:2.7. The catalyst was subjected to a thermal treatment at 560 鎺矯 for 4.5 h. The catalyst characterization revealed well-mixed oxides with desirable properties such as sufficient porosity and surface area. It also showed that the formation of the O閳ユ弲a閳ユ彊 functional group sitting on the surface of the catalyst facilitated high glycerol conversion. The synthesized catalyst with excellent porosity and stability area was promising for glycerol etherification.

Biography: Professor Dr. Ahmad Zuhairi Abdullah is a distinguished researcher and academic leader with an impressive track record in chemical engineering. He earned his B. Tech (Hons), MSc, and PhD in 1995, 2000, and 2004, respectively. His leadership roles at Universiti Sains Malaysia include serving as Deputy Dean (Industry and Community Network) from 2010 to 2012, Deputy Dean (Research and Postgraduate Studies) from 2013 to 2018, and most recently, Dean (2022-2024). Recognized for his expertise, he holds professional affiliations as a Professional Technologist with the Malaysian Board of Technologists (MBOT), a Fellow of Akademi Sains Malaysia and Institut Kimia Malaysia (IKM), and a Life Member of the Malaysian Oil Scientists and Technologists' Association (MOSTA). He is a sought-after MBOT accreditation auditor and an external examiner for numerous academic programs across Malaysian universities. His research primarily focuses on ordered porous catalytic materials for oleochemical reactions, renewable energy, waste treatment, and waste valorization. With an outstanding scholarly contribution, he has authored nearly 300 refereed journal articles and book chapters, primarily as the lead author, and has played a crucial role as a technical committee member for nearly 200 international scientific conferences. His expertise has made him a frequent keynote and invited speaker at prestigious conferences across Malaysia, Laos, Indonesia, Vietnam, Thailand, Pakistan, Iraq, the Philippines, and China. Beyond academia, he serves as a research proposal evaluator for various ministries and international scientific bodies in the USA, Oman, Qatar, Kazakhstan, and Chile. He is also a Department of Environment Malaysia expert panelist, assessing Environmental Impact Assessment (EIA) reports for major industrial projects, including petrochemical complexes, metal smelting facilities, chemical plants, and lead-acid battery recycling plants. His exceptional contributions to research have earned him the Top Research Scientists Malaysia (TRSM) award in 2014 and a prestigious ranking in the List of the World's Top 2% Scientists by Stanford University (2020-2024). With an h-index of 65 and over 14,000 citations (Scopus), his impact on the global research community continues to grow.

 

Prof. Ahmad Rifqi Md Zain
Universiti Kebangsaan Malaysia, Malaysia

Biography: Ahmad Rifqi Md Zain is a Professor of Electronics Engineering at the Institute of Microengineering and Nanoelectronics (IMEN), Universiti Kebangsaan Malaysia (UKM). He received his bachelor's degree and master's degree from Coventry University and Glasgow University, United Kingdom, in 2002 and 2005, respectively. Ahmad Rifqi also worked with Marconi Communication as a hardware engineer in the United Kingdom from 2002-2004 before pursuing his studies at Glasgow University. In 2009, He received his PhD from Glasgow University, United Kingdom (with Prof Richard De La Rue), in Electronics engineering (1D photonic crystal cavities). After completing his postdoctoral studies in 2012 at Bristol University in Gallium nitride-based optical biosensors (with Prof Martin J. Cryan), he joined IMEN, UKM in August 2014. In 2017, he joined Prof Marko Loncar at the School of Engineering and Applied Sciences (SEAS), Harvard University, as a postdoctoral research fellow in applied physics until 2019, working on Quantum information. Ahmad Rifqi is expert in nanophotonic, optoelectronics and nanofabrication, and his current interest include optical imaging at infra-red region, 2D materials, optical-based biosensors (including Photonic crystal-based waveguide, SERS, LSPR), 1D and 2D photonic crystals, optical MEMS sensors, environmental and agriculturally based sensors (including water security and farming industry), integrated optics and nanofabrication. Ahmad Rifqi is a member of the Optical Society of America, IEEE. IET and SPIE. Ahmad Rifqi has been awarded several research grants nationally and internationally.

 

 

Senior Lecturer Dr. Yuli Yetri M.Si
Politeknik Negeri Padang, Padang, Indonesia

Speech Title: The Impact of Temperature on the Physical and Electrochemical Characteristics of Carbon-Based Cacao Pods to Increase the Supercapacitor's Specific Capacitance and Surface Area

Abstract: The physical and electrochemical characteristics of monolithic carbon-based cacao peels have been analysed numerous times in preparation for their use in supercapacitors. Thus, examining the connection between pore diameter, surface area, and specific capacitance was the primary goal of this investigation. By utilizing the activation temperature range of 600 degrees celsius, 700 degrees celsius, 800 degrees celsius, and 900 degrees celsius, the changes in pore diameter were discovered. To guarantee that the electrode's natural porosity would not be disturbed by adhesives, the carbon electrode was manufactured. Physical parameters examined include (i) thermal properties, (ii) surface morphology, (iii) element composition, (iv) crystallinity attributes, and (v) N2 gas adsorption-desorption isotherm. Moreover, Cyclic Voltammetry (CV) was employed as the electrochemical characteristic to determine the specific capacitance. The optimum specific capacitance value was obtained at a temperature of 700 degrees celsius, which was 140.2 F/g. The higher the temperature, the larger the pore size. This shows that the pore size increases with increasing temperature. And the specific capacitance value increases as the pore size decreases. Analysis of the degree of crystallinity, thermal resistance, elemental content, and surface morphology provided support for this research.

Biography: Prof. Dr. Yuli Yetri M.Si is a Senior Lecturer in Department of Mechanical Engineering, Politeknik Negeri Padang, Padang, Indonesia. She received her Dr. degree from Andalas University, Padang, Indonesia in material chemistry. She specializes in corrosion inhibitor from natural product, material, renewable energy and green chemistry. Up-to-date, she has published papers in International Refereed Journals, and also participated in many seminars or conferences, both national and international level. Since the year 2017, under the Ministry of Research, Technology, and Higher Education, Republic of Indonesia, she has been appointed and approved to be one of reviewers for several international refereed journals and grant competition, helping to develop one of the Ministry's programs in improving lecturer's performance. In addition, she is now an active member of Indonesia Chemical Society, Global Illuminator, Global Research & Development Service (GRDS), the IRED Institute of Research Engineers and Doctors, Hong Kong Chemical, Biological & Environment Engineering Society (HKCBEES), and Association of Chemical Physics Indonesia.

 

 

 

Prof. Mary Donnabelle Balela (Head of Sustainable Electronic Materials Group)
University of the Philippines, Philippines

Biography: Dr. Mary Donnabelle Balela is a Full Professor at the Department of Mining, Metallurgical and Materials Engineering (DMMME), University of the Philippines (UP). She is a graduate of BS Metallurgical Engineering from UP in 2004, MS Materials Engineering from the Universiti Sains Malaysia in 2008, and Ph.D. Materials Science and Engineering from Kyoto University in 2011. She leads the Sustainable Electronic Materials Group, which develops low-cost advanced functional materials for electronic, environmental, and energy applications. She received the 2020 Encouragement Award from the Hitachi Global Foundation Asia Innovation Award for her work on developing customizable sorbents based on kapok fibers. She is the runner-up in the 2019 ASEAN-US Science Prize for Women, 2019 Department of Science Outstanding Research and Development Awardee for Applied Research for her work on silver (Ag) NW-based flexible electronic devices, 2021 and 2018 University of the Philippines Outstanding Engineering Researcher and the 2016 National Academy of Science and Technology (Philippines) Outstanding Young Scientist for Materials Science and Engineering.

 

Prof. Raj Das
RMIT University, Australia

Speech Title: Effect of scan parameters on the wear behaviour of additively manufactured graphene-reinforced stainless steel composites

Abstract: Graphene-reinforced metal matrix composites have gained significant interest due to their potential to enhance mechanical and tribological performance. In the context of additive manufacturing, especially the laser powder bed fusion (PBF-LB) process, optimizing process parameters is crucial to fully harness these benefits. This study aims to investigate the influence of two key PBF-LB parameters, scan speed and scan strategy, on the wear behaviour of graphene-reinforced stainless steel (Gr-SS316L) composites. A comparative assessment with bare SS316L was carried out to understand the role of graphene as reinforcement and process parameters in tailoring wear resistance.
Gr-SS316L and SS316L samples were fabricated under varying scan parameters to study their wear behaviour. Low-load tribological testing was performed under four different normal loads, keeping sliding speed and distance constant. Post-wear characterization involved multi-scale microscopy for evaluating wear tracks and counter surfaces, alongside Raman spectroscopy to examine the composition and structure of tribolayers formed during wear.
The results revealed that the tailored scan parameters significantly influenced densification, microstructure, and consequently, the wear resistance of the composites. Gr-SS316L consistently outperformed SS316L, demonstrating relatively lower wear rates and the formation of stable, graphene-reinforced tribolayers that contributed to improved wear performance. It was found that the addition of graphene has improved the wear resistance of SS316L by approximately 78%.
In conclusion, the study underscores the critical role of both processing parameters and graphene reinforcement in enhancing the tribological behaviour of Gr-SS316L composites fabricated by PBF-LB. The insights gained offer valuable guidelines for designing wear-resistant metal-matrix composites via additive manufacturing.

Biography: Prof Raj Das leads the 'Simulation and Modelling' team in the Department of Aerospace Engineering at RMIT University in Australia. He is also an adjunct academic at the University of Auckland (New Zealand) and the University of Quebec (Canada). He is a principal investigator of the 'Sir Lawrence Wackett Defence and Aerospace Research Centre' of RMIT University. He is the Chair of the 'National Committee on Applied Mechanics' of Engineers Australia, Vice President of the 'International Congress on Fracture' and past President of the 'International Committee on the Mechanical Behaviour of Materials'.

Prof Das has published more than 350 papers in international journals and conferences. Prof Das has a PhD from Monash University, Australia in Structural Optimisation and Failure Analysis. Prof Das has previously worked in the University of Auckland, the Commonwealth Scientific and Industrial Research Organisation (CSIRO), and the University of Manchester.

Prof Das has research interests in computational mechanics, fracture mechanics, dynamic fracture, damage tolerance analysis, and multi-scale modelling in metals and composite materials. Prof Das has been extensively promoting applied mechanics, computational mechanics and fracture mechanics research within the Australasian region. He was the chair of four major scientific conferences recently held in Australia and New Zealand. He has served on the scientific committees of more than 150 international conferences. Prof Das is on the editorial board and review panel of several journals and funding agencies.

 

Assoc. Prof. Suhana Arshad
Universiti Sains Malaysia, Malaysia

Speech Title: Improving Dye-Sensitized Solar Cells: The Role of Organic Dye Structures in Performance and Stability

Abstract: Dye-sensitized solar cells (DSSCs) are a promising third-generation solar technology, featuring a nanomaterial-based photoanode, dye absorbers, electrolyte, and counter electrodes. While efficient indoors, their outdoor performance declines as sunlight raises internal temperatures, accelerating device degradation. Chalcone and organosilver dye molecules offer significant potential in enhancing dye-sensitized solar cell (DSSC) performance. Chalcone derivatives, with their 伪,尾-unsaturated ketone structure, exhibit broad absorption, tunable energy levels, and reduced charge recombination, facilitating efficient electron injection into the conduction band when adsorbed onto electron transport layers (ETL). Meanwhile, Organosilver derivatives also further improve DSSC efficiency through plasmonic properties that enhance light absorption and charge transfer, minimizing electron-hole recombination. The synergy between these molecules provides a promising pathway for optimizing DSSC stability and energy conversion efficiency. Overcoming challenges like aggregation and stability is key to optimizing DSSC performance. Chalcone dyes enhance charge separation, while organosilver derivatives improve light absorption, making them promising candidates for sustainable energy solutions. Continuous interdisciplinary efforts will be essential in unlocking their full potential.

Biography: Dr. Suhana Arshad is a distinguished researcher specializing in Condensed Matter Physics and Crystallography. She holds an MSc in Radiation Science and a PhD in Physics from Universiti Sains Malaysia (USM). Since 2014, she has been a part of USM's School of Physics, where she currently serves as an Associate Professor and researcher. Additionally, she coordinates the X-Ray Crystallography Laboratory and leads the Condensed Matter Physics and Crystallography research group. Her extensive contributions to the field include over 100 published articles and three filed Intellectual Property (IP) applications related to organic synthesis, crystallography, and optoelectronic technologies. Her research interests area are in Solar Cells, Organic Light Emitting Diodes (OLED), computational studies and nonlinear optics (NLO). She actively reviews for scientific journals and is a member of several professional organizations, further enriching her contributions to the research community.

 

Assoc. Prof. Yi Cui
Nagoya University, Japan

Speech Title: Multiscale Modeling of Nanostructured Materials: Stress-Guided Growth and Deformation Mechanisms

Abstract: This study presents recent advancements in multiscale computational modeling of nanostructured materials, with a focus on the stress-driven growth and deformation behavior of metallic nanowires and thin-film nanostructures. Using finite element simulations and continuum-scale analysis, we investigate the formation of vertically aligned single-crystal aluminum nanowires under focused ion beam (FIB)-induced stress gradients. The simulations reveal that localized stress fields act as driving forces for atomic diffusion, and the role of grain orientation and size-quantified through Schmid's law and the Hall-Petch relationship-determines the nucleation sites and growth direction.
Additionally, impurity-induced pinning effects are shown to influence anisotropic stress relaxation, enabling controlled nanowire alignment and density. The findings are supported by experimental observations and provide a theoretical framework for nanowire forest fabrication. The study also extends to nanopillar formation from alloy thin films and the mechanics of nanowires under deformation, offering insights into performance optimization of nanomaterials. These results contribute to the foundational understanding necessary for designing next-generation nanoscale systems, with implications for applications in electronics, energy devices, and biomedical materials.

Biography: Dr. Yi Cui is an Associate Professor in the G30 Automotive Engineering Program at the Department of Mechanical and Aerospace Engineering, Nagoya University. He received his B.Sc. in Theoretical and Applied Mechanics from Fudan University in 2010, M.Sc. in Solid Mechanics from Fudan University in 2013, and Ph.D. in Solid Mechanics from the University of Alberta in 2017.
Prior to his current position, Dr. Cui served as Assistant Professor (2021-2024) and JSPS International Research Fellow (2019-2021) at Nagoya University's Department of Mechanical and Aerospace Engineering, following his postdoctoral research (2018-2019) in Micro-Nano Mechanical Science and Engineering at the same institution.
Dr. Cui has received multiple prestigious awards including the 2025 JACM Young Investigator Award, 2024 Japan Society of Mechanical Engineers Paper Award, Best Reviewer Award from Nuclear Engineering and Technology (2021), Best Oral Presentation Award at the 5th International Conference on Nanomechanics and Nanocomposites (2018, Fukuoka), and Best Sessional Presentation Award at the 26th Canadian Congress on Applied Mechanics (2017, Victoria).

 

Lecturer Ming Li
University of Electronic Science and Technology of China, China

Speech Title: High-Performance Aqueous Zinc-Metal Batteries Based on Hydrogen Bond Modulation

Abstract: Compared with traditional organic - system batteries such as lithium - ion batteries, aqueous zinc metal batteries have higher safety. In addition, the use of aqueous electrolytes also provides significant competitiveness: (1) low cost, (2) environmental friendliness, (3) excellent rate performance, and (4) high safety. Therefore, aqueous rechargeable batteries have received unprecedented attention as potential candidates for large - scale energy storage systems. However, the dendrite growth and side - reaction problems of metal anodes, the low specific capacity, material dissolution, and sluggish electrochemical reaction kinetics of cathode materials, as well as a series of problems derived from water decomposition in aqueous electrolytes, have hindered the further development of aqueous zinc metal batteries. To address these issues, we optimized hydrogen bonds either within the electrode materials or in the electrolyte through a hydrogen - bond regulation strategy, ultimately achieving a highly stable zinc metal anode and cathode materials with excellent electrochemical performance. Meanwhile, by using advanced in-situ and ex-situ characterization techniques combined with theoretical calculations, we systematically investigated the influence of hydrogen bonds on electrode materials, the energy storage process, and the electrolyte environment. We deeply revealed the correlation between hydrogen - bond regulation and electrochemical performance optimization, providing an important reference for the development of high - performance aqueous batteries.

Biography: Dr. Li Ming is a lecturer at the School of Materials and Energy, University of Electronic Science and Technology of China. He obtained his Master's (2019) and Ph.D. (2023) degrees from Wuhan University of Technology under the supervision of Prof. Liqiang Mai. His research focuses on high - performance aqueous metal-ion batteries, including electrode material design, device assembly, and in-situ characterization of electrochemical energy storage mechanisms. In recent years, he has published many high - level papers as the first author (including co-first author). These papers have been published in journals such as Advanced Materials (2), Angewandte Chemie International Edition (ESI hot paper), Energy & Environment Science (ESI hot paper), Advanced Functional Materials (2), Advanced Energy Materials, Nano Energy, Energy & Environments Materials, and ACS Applied Materials & Interfaces. He has also been granted 3 national invention patents. He is in charge of projects such as the National Natural Science Foundation of China and the Natural Science Foundation of Sichuan Province.

 

 

 

 

 

Previous Keynote Lecturers

Prof. Shigeru Horii Faculty of Engineering, Kyoto University of Advanced Science, Japan	Prof. Armando Ramalho Polytechnic Institute of Castelo Branco, Portugal	Prof. Osman Adiguzel Department of Physics, Firat University, Turkey
Prof. Ivana Salopek Cubric University of Zagreb Faculty of Textile Technology, Croatia	Assoc. Prof. Sajid Hussain Siyal Dawood University of Engineering and Technology, Pakistan	Assoc. Prof. Muzamir Hasan Universiti Malaysia Pahang Al-Sultan Abdullah, Malaysia
Assoc. Prof. Bappa Acherjee Birla Institute of Technology, India	Assoc. Prof. Mohd Hasmizam Razali Universiti Malaysia Terengganu, Malaysia	Dr. Tingting Yin Nanyang Technological University, Singapore