Chuan-Jun Wang | Material Chemistry | Best Researcher Award

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Prof. Chuan-Jun Wang | Material Chemistry | Best Researcher Award

Professor from Shandong Agricultural University, China

Professor Wang Chuanjun is a distinguished academic and researcher currently serving at Shandong Agricultural University. With a deep-rooted background in chemistry and catalysis, his work primarily focuses on advancing sustainable energy solutions through photo- and electrocatalytic processes. Prof. Wang’s scholarly journey is marked by excellence and international collaboration, having undergone postdoctoral research at the Institute of Chemical Research of Catalonia (ICIQ) in Spain—a globally recognized hub for chemical innovation. His contributions span green catalysis, nitrogen conversion, and biomass valorization, all critical for a low-carbon future. He has published over 30 research articles in high-impact journals indexed in SCI and Scopus and has secured 6 patents, reflecting a strong translational aspect to his research. With a citation index exceeding 1800, his work is widely acknowledged by peers in the scientific community. Prof. Wang leads national and provincial projects focused on catalytic ammonia synthesis, showcasing his capacity to spearhead innovative and impactful research. His portfolio also includes participation in international collaborations and consultancies, adding depth to his academic profile. Passionate about scientific development and knowledge dissemination, Prof. Wang continues to drive meaningful progress in sustainable technologies and energy conversion systems.

Professional Profile

Education

Professor Wang Chuanjun’s academic foundation reflects a consistent pursuit of excellence in chemistry and material science. He began his undergraduate studies at Shandong Agricultural University (2006–2010), majoring in chemistry, where he laid the groundwork for his future in catalysis and green technology. He then advanced to the Technical Institute of Physics and Chemistry at the Chinese Academy of Sciences (TIPC-CAS), completing both his Master’s (2010–2012) and Doctoral (2012–2015) degrees. At TIPC-CAS, he specialized in electrochemical systems and advanced materials, gaining hands-on experience in catalytic reactions, particularly those involving nitrogen and hydrogen transformations. Eager to broaden his research perspective, Prof. Wang undertook a prestigious postdoctoral fellowship (2015–2018) at the Institut Català d’Investigació Química (ICIQ) in Tarragona, Spain. During this time, he engaged with world-leading researchers and technologies, deepening his expertise in molecular catalysis and photoinduced reactions. This international exposure has significantly influenced his methodological approach and innovation in his later projects. His academic path has been integral to shaping his current focus areas, including green catalysis, nanomaterial development, and electrocatalytic processes for sustainable energy solutions.

Professional Experience

Prof. Wang Chuanjun’s professional career is a testament to his dedication to scientific research and education. He has been a full-time Professor at Shandong Agricultural University since January 2019, where he teaches, supervises postgraduate research, and leads several national and provincial scientific projects. His current position allows him to explore catalytic solutions for global challenges, such as clean ammonia synthesis and nitrogen fixation, by integrating metal-based nanomaterials and advanced light-driven systems. Prior to this role, he served as a postdoctoral researcher at ICIQ, Spain (2015–2018), where he worked on photochemical and organometallic catalysis, gaining invaluable international exposure and enhancing his collaborative research skills. His time at ICIQ built a strong foundation in synthetic methodology and catalysis that he has since translated into practical, scalable energy applications in China. Earlier, as a graduate and doctoral student at the Technical Institute of Physics and Chemistry (TIPC-CAS), he conducted pioneering studies on electrochemical materials and reaction mechanisms. With experience that spans both academic institutions and cross-border scientific initiatives, Prof. Wang has developed a dynamic professional portfolio, combining teaching excellence with real-world research impact in energy science and sustainable chemistry.

Research Interests

Prof. Wang Chuanjun’s research interests are centered on catalysis-driven solutions for sustainable energy and environmental systems. His work focuses on the synthesis and application of nanostructured metal phosphides and transition metal complexes for photo- and electrocatalytic nitrogen conversion, aiming to produce ammonia and hydrogen under mild conditions. He is particularly interested in green catalysis strategies that mimic natural enzymatic processes, especially nitrogenase-like systems that enable low-energy nitrogen fixation. His work also explores biomass conversion, utilizing renewable sources for energy and chemical production. A core area of his research is the design of photocatalytic systems for enhanced solar-driven reactions, integrating light harvesting with catalytic processes for higher efficiency and selectivity. Additionally, Prof. Wang investigates the fundamental kinetics and mechanistic pathways involved in these transformations, leveraging spectroscopy and electrochemical analysis to refine catalytic designs. Through collaborations and interdisciplinary approaches, he aims to bridge material synthesis, reaction engineering, and environmental science. His research not only contributes to academic understanding but also has potential implications for industrial ammonia production and sustainable agricultural practices.

Research Skills

Prof. Wang Chuanjun possesses a diverse and robust set of research skills that span synthetic chemistry, catalysis, material characterization, and electrochemical analysis. He is highly proficient in the synthesis of nanostructured metal phosphides, transition metal complexes, and functionalized photocatalysts, which are central to his work on nitrogen fixation and hydrogen evolution. His expertise includes the use of advanced characterization techniques such as X-ray diffraction (XRD), scanning and transmission electron microscopy (SEM/TEM), and spectroscopy (UV-Vis, FTIR, NMR), which he employs to elucidate material structures and reaction mechanisms. In electrochemistry, he is adept in cyclic voltammetry, chronoamperometry, and electrochemical impedance spectroscopy, allowing detailed insights into charge transfer processes and catalytic activity. His skills also encompass computational modeling and mechanistic studies to simulate catalytic pathways and optimize energy efficiency. Prof. Wang’s research is strengthened by his ability to integrate lab-scale findings with scalable design, often considering industrial relevance and sustainability. His multidisciplinary competencies make him a versatile and forward-thinking scientist capable of addressing complex challenges in green chemistry and renewable energy technologies.

Awards and Honors

Throughout his career, Prof. Wang Chuanjun has been recognized for his contributions to the field of catalysis and green chemistry. He has received funding and honors from prominent institutions, including the Youth Project of the Natural Science Foundation of Shandong Province, where he serves as the project lead on electrocatalytic nitrate/nitrite reduction to ammonia. Additionally, he was awarded the Shandong Provincial High-level Foreign Experts Project to explore visible-light-driven synthesis of nanomaterials for nitrogen conversion—a prestigious recognition of his innovative research in sustainable materials. He also participated in the Shandong University Youth Talent Promotion Project on green catalysis and synthesis, further validating his expertise in eco-friendly chemical processes. Prof. Wang has published 33 papers in international peer-reviewed journals and has a citation index of over 1800, reflecting his scientific impact. He holds six patents and has provided consultancy services to industry, demonstrating the practical applicability of his work. These accolades underscore his leadership in the field and his commitment to developing next-generation technologies for energy and environmental sustainability.

Conclusion

Prof. Wang Chuanjun is an accomplished researcher whose work exemplifies innovation, sustainability, and academic rigor in the field of chemical catalysis. His academic background, international research experience, and ongoing leadership in multiple funded projects position him as a valuable contributor to the scientific community. With research spanning nitrogen conversion, biomass utilization, and green energy, Prof. Wang’s efforts address urgent global challenges in clean energy and environmental stewardship. His skillset integrates material science, electrochemical analysis, and catalytic system design, bridging fundamental research with real-world impact. The high citation index and patent record highlight both scholarly influence and practical relevance. While expanding editorial involvement and global scientific engagement could enhance his profile further, his current contributions already make him a strong candidate for high-level recognition. His leadership in provincial and international projects, combined with a commitment to academic excellence and interdisciplinary research, affirms his suitability for the Best Researcher Award. Prof. Wang represents the next generation of chemists driving transformative advances in sustainable science.

Publications Top Notes

  1. Hyaluronic acid-functionalized nanoarmor enhances the stable colonization ability of Paenibacillus polymyxa JF_P68 and boosts its biological control efficacy against pear anthracnose
    Journal: Pest Management Science, 2025
    Authors: Du, J.; Li, H.; Wu, L.; Liu, Y.; Sun, F.; Tian, X.; Lu, N.; Jiao, Y.; Liu, S.; Zhao, X.; Wang, C.-J.

  2. Synergistic Pd-CoFe sites for efficient and selective electrooxidation of glycerol to glyceric acid coupled with H₂ evolution
    Journal: Chemical Engineering Journal, 2025
    Authors: Zhou, J.; Shi, R.; Gao, Q.; Liu, F.; Chen, Y.; Chen, J.; Guo, Z.; Tse, E.C.M.; Zhao, X.; Wang, C.-J.

  3. Facile construction of CuFe-based metal phosphides for synergistic NOₓ⁻ reduction to NH₃ and Zn–nitrite batteries in electrochemical cell
    Journal: Small, 2024
    Authors: Wang, G.; Wang, C.; Liu, S.; Zhao, X.; Xu, J.; Tian, X.; Li, Q.; Waterhouse, G.I.N.

  4. Methane sulfonic acid-assisted synthesis of g-C₃N₄/Ni₂P/Ni foam: Efficient, stable and recyclable for photocatalytic nitrogen fixation under visible light
    Journal: Journal of Environmental Chemical Engineering, 2024
    Authors: Gao, X.; Zhang, B.; Cao, L.; Liu, F.; Fan, H.; Wang, C.; Xu, J.

  5. Visible light-driven synthesis of PtCu alloy nanodendrites for electrocatalytic nitrogen-conversion reactions
    Journal: Advanced Sustainable Systems, 2024
    Authors: Wang, G.; Wang, C.; Zhao, X.; Liu, S.; Zhang, Y.; Lv, X.; Xu, J.; Waterhouse, G.I.N.

  6. Glufosinate ammonium-loaded halloysite nanotubes for slow-release weeding polymer mulch films
    Journal: ACS Applied Nano Materials, 2023
    Authors: Jia, X.; Zhang, K.; Wang, C.; You, X.; Yang, S.; Wang, J.; Zhang, B.; Xu, J.; Yan, Y.; Wang, Y.

  7. CoP nanowires on carbon cloth for electrocatalytic NOₓ⁻ reduction to ammonia
    Journal: Journal of Electroanalytical Chemistry, 2022
    Authors: Zhang, H.; Wang, G.; Wang, C.; Liu, Y.; Yang, Y.; Jiang, W.; Fu, L.; Xu, J.

  8. Electrochemical ammonia synthesis from nitrite assisted by in situ generated hydrogen atoms on a nickel phosphide catalyst
    Journal: Chemical Communications, 2021
    Authors: Yang, X.; Liu, F.; Chen, Y.; Kang, L.; Wang, C.-J.

 

Aimé Peláiz Barranco | Materials Science | Best Researcher Award

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Prof. Dr. Aimé Peláiz Barranco | Materials Science | Best Researcher Award

Faculty of Physics, University of Havana, Cuba

Aimé Peláiz Barranco is a distinguished Cuban physicist born on June 25, 1972, in La Habana, Cuba. She currently serves as the Dean and Full Professor at the Faculty of Physics, University of Havana, where she also leads the Ferroic Materials Group. With a prolific academic and research career, she is widely recognized for her contributions to ferroelectric, piezoelectric, antiferroelectric, and multiferroic materials. Dr. Peláiz Barranco has played crucial roles in academic leadership, including serving as Deputy Dean and Secretary of the Scientific Council. Internationally active, she has coordinated the Latin-American Network of Ferroelectric Materials and held invited professorships in prestigious institutions across Mexico, Brazil, Spain, France, Portugal, and China. A full member of the Academy of Sciences of Cuba, she has made significant contributions to teaching, research supervision, and academic development. With over 140 international publications, multiple book chapters, and extensive participation in scientific conferences, she has profoundly impacted the field of materials science. Her outstanding research has earned her several international and national awards, including the TWAS-ROLAC Award, the Sofia Kovalieskaya Award, and the Best Researcher recognition from the University of Havana. Her multilingual proficiency further amplifies her global academic collaborations.

Professional Profile

Education

Aimé Peláiz Barranco pursued all her higher education degrees at the University of Havana, Cuba. She earned her B.Sc. in Physics in 1995, followed by a Master’s degree in Physics Sciences in 1996. She later obtained her Doctorate in Physics Sciences in 2001, cementing her academic foundation in the field of material sciences. Her education has been deeply rooted in the Cuban academic system, particularly at the Faculty of Physics, University of Havana, where she has remained an integral part of the academic community both as a student and later as a faculty leader. Her advanced training provided the essential theoretical and practical framework for her subsequent pioneering research in ferroelectric, piezoelectric, antiferroelectric, and multiferroic materials. Throughout her educational journey, she demonstrated a strong commitment to physics education and material sciences, which laid the groundwork for her international collaborations and leadership roles. Her comprehensive education has not only equipped her with deep expertise in material characterization but also fostered her ability to lead research groups, mentor students, and contribute to scientific advancements globally.

Professional Experience

Aimé Peláiz Barranco has accumulated an extensive professional history at the University of Havana since 1995. She began as a teaching trainee and steadily advanced to become an instructor, assistant professor, auxiliary professor, and eventually a full professor in 2014. Since 2019, she has served as the Dean of the Faculty of Physics, where she also leads the Ferroic Materials Group. Her teaching portfolio includes more than 70 undergraduate and postgraduate courses, with significant involvement in thesis evaluations at the licentiate, master’s, and doctoral levels. Dr. Peláiz Barranco has also held various academic positions such as Deputy Dean, Secretary of the Scientific Council, and Member of the National Physics Commission. She actively participates in scientific organization, having served on committees for over 20 national and international conferences. Internationally, she has been invited as a professor to universities in Mexico, Brazil, Spain, France, Portugal, and China, enhancing global academic exchanges. Her coordination of the Latin-American Network of Ferroelectric Materials between 2000 and 2019 exemplifies her leadership in fostering regional research collaboration. Her broad professional journey showcases her dedication to education, research, and scientific advancement.

Research Interests

Dr. Peláiz Barranco’s research primarily focuses on the preparation and characterization of ferroelectric, piezoelectric, antiferroelectric, and multiferroic materials in the form of ceramics, thin films, and composites. She specializes in the study of phase transitions, relaxors, dielectric relaxation, electrical conductivity, and impedance spectroscopy. Her research extends to bioimpedance, pyroelectricity, piezoelectricity, multiferroics, energy storage, and the electrocaloric effect. These areas contribute significantly to the advancement of modern material science, with applications in sensors, actuators, energy systems, and smart materials. She has led numerous national and international research projects, including three grants awarded by the Third World Academy of Science. Her deep exploration into ferroic materials has resulted in over 140 publications in international journals, four book chapters, and more than 200 presentations at scientific meetings. Dr. Peláiz Barranco’s research activities are globally recognized, positioning her as a leading expert in the field. Through her leadership in the Ferroic Materials Group and the Latin-American Network of Ferroelectric Materials, she has created substantial regional and international research synergies.

Research Skills

Aimé Peláiz Barranco possesses exceptional research skills in experimental design, material synthesis, and advanced characterization techniques. Her expertise spans ceramics, thin films, and composite materials, particularly in the domains of ferroelectric, piezoelectric, antiferroelectric, and multiferroic substances. She is adept at using impedance spectroscopy, dielectric relaxation analysis, and pyroelectric and piezoelectric measurements to explore the functional properties of advanced materials. Additionally, she is skilled in bioimpedance analysis and electrocaloric effect evaluation, essential for emerging applications in biophysics and energy storage. Dr. Peláiz Barranco’s ability to lead large, multi-institutional research projects, both nationally and internationally, underscores her project management and scientific coordination capabilities. Her involvement as an editor and contributor to scientific books further highlights her ability to synthesize complex information and contribute to scientific literature. Furthermore, her supervisory experience, mentoring over 30 undergraduate, master’s, and doctoral theses, demonstrates her leadership and instructional strengths in guiding research teams and developing new scientific talent. Her fluency in Spanish, English, and Portuguese enhances her global research communication and collaboration skills.

Awards and Honors

Aimé Peláiz Barranco has received numerous prestigious awards and recognitions at both national and international levels. Among her international accolades, she won the First Prize at the First Iberoamerican Concourse of Laboratory Classes in Materials Science (1999) and the TWAS-ROLAC Award for Young Scientists in Physics (2011). She has been honored with the Young Scientist Award by CAS-TWAS (2012) and the TWOWS Award for Young Women Scientists (2010), signifying her influence across the Latin America and Caribbean region. Nationally, she has been repeatedly awarded by the Cuban Academy of Sciences, with multiple recognitions spanning from 1999 to 2023. The University of Havana has acknowledged her as Best Researcher in several years, alongside departmental and faculty awards for scientific excellence and educational innovation. She also received the distinguished Carlos J. Finlay Medal for her significant scientific contributions. These honors highlight her sustained commitment to research, education, and academic leadership. Her continuous recognition within Cuba and abroad underscores her remarkable impact on materials science and the broader scientific community.

Conclusion

Aimé Peláiz Barranco is an accomplished physicist whose career exemplifies excellence in teaching, research, and academic leadership. Her extensive expertise in ferroic materials has contributed significantly to the advancement of materials science in Cuba and internationally. Through her roles as Dean, research group leader, and international project coordinator, she has demonstrated exceptional leadership and organizational skills. Her research is widely published, and she has been recognized with numerous prestigious awards for her scientific achievements and educational contributions. Dr. Peláiz Barranco’s commitment to fostering regional and international collaborations, along with her dedication to mentoring the next generation of scientists, highlights her as a key figure in the scientific community. Fluent in multiple languages and having held various visiting professorships, she continues to build global partnerships that enrich both her work and the institutions she serves. Her professional journey reflects a harmonious balance of research excellence, impactful teaching, and significant service to the academic and scientific ecosystem, positioning her as a highly deserving candidate for the Best Researcher Award.

Publications Top Notes

1. Phase transitions in ferrimagnetic and ferroelectric ceramics by ac measurements

  • Authors: A. Pelaiz-Barranco, M.P. Gutierrez-Amador, A. Huanosta, R. Valenzuela

  • Year: 1998

  • Citations: 163

2. Ionized oxygen vacancy-related electrical conductivity in (Pb₁₋ₓLaₓ)(Zr₀.₉₀Ti₀.₁₀)₁₋ₓ/₄O₃ ceramics

  • Authors: A. Peláiz-Barranco, J.D.S. Guerra, R. Lopez-Noda, E.B. Araujo

  • Year: 2008

  • Citations: 141

3. Ferroelectric ceramic materials of the Aurivillius family

  • Authors: A. Peláiz-Barranco, Y. González-Abreu

  • Year: 2013

  • Citations: 69

4. Dielectric relaxation related to single-ionized oxygen vacancies in (Pb₁₋ₓLaₓ)(Zr₀.₉₀Ti₀.₁₀)₁₋ₓ/₄O₃ ceramics

  • Authors: A. Peláiz-Barranco, J.D.S. Guerra

  • Year: 2010

  • Citations: 65

5. Atomic‐scale imaging and quantification of electrical polarisation in incommensurate antiferroelectric lanthanum‐doped lead zirconate titanate

  • Authors: I. MacLaren, R. Villaurrutia, B. Schaffer, L. Houben, A. Peláiz‐Barranco

  • Year: 2012

  • Citations: 63

6. Raman spectroscopy study of the La‐modified (Bi₀.₅Na₀.₅)₀.₉₂Ba₀.₀₈TiO₃ lead‐free ceramic system

  • Authors: Y. Mendez‐González, A. Peláiz‐Barranco, A.L. Curcio, A.D. Rodrigues, et al.

  • Year: 2019

  • Citations: 57

7. AC behaviour and conductive mechanisms of 2.5 mol% La₂O₃ doped PbZr₀.₅₃Ti₀.₄₇O₃ ferroelectric ceramics

  • Authors: A.P. Barranco, F.C. Pinar, O.P. Martinez, J.D.L.S. Guerra, I.G. Carmenate

  • Year: 1999

  • Citations: 57

8. Effects of MnO₂ additive on the properties of PbZrO₃–PbTiO₃–PbCu₁/₄Nb₃/₄O₃ ferroelectric ceramic system

  • Authors: A.P. Barranco, F.C. Piñar, O.P.M.P. Martínez, E.T. García

  • Year: 2001

  • Citations: 50

9. Thermal and structural characterization of the ZrO₂₋ₓ(OH)₂ₓ to ZrO₂ transition

  • Authors: E. Torres-García, A. Peláiz-Barranco, C. Vázquez-Ramos, G.A. Fuentes

  • Year: 2001

  • Citations: 39

10. Piezo-, pyro-, ferro-, and dielectric properties of ceramic/polymer composites obtained from two modifications of lead titanate

  • Authors: A. Pelaiz-Barranco, P. Marin-Franch

  • Year: 2005

  • Citations: 38

Likun Qian | Materials Science | Best Researcher Award

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Mr. Likun Qian | Materials Science | Best Researcher Award

School of Future Technology, China University of Geosciences (Wuhan), China

Qian Likun is an emerging researcher in the field of automation and control systems, currently pursuing his undergraduate degree at China University of Geosciences (Wuhan). With a solid foundation in electronic technologies, embedded systems, and automation instrumentation, Qian has displayed strong technical proficiency and innovative thinking across various academic and practical projects. He has independently designed and developed motion controllers, control platforms, and monitoring systems, showcasing his ability to integrate software and hardware seamlessly. His projects range from motion trajectory control to subsurface conductor detection and RGBD salient object detection using convolutional neural networks. In addition to his technical skills, Qian has demonstrated outstanding leadership capabilities by serving as the class monitor and contributing to his college’s new media promotion initiatives. He has actively led his classmates to achieve multiple awards at the college level, earning personal recognition as an excellent Communist Youth League cadre. His work ethic, problem-solving ability, and teamwork have set him apart as a student leader and aspiring researcher. With his growing expertise in control systems, programming, and intelligent instrumentation, Qian Likun is positioning himself as a promising researcher with the potential to make significant contributions to the field of automation and intelligent systems in the near future.

Professional Profile

Education

Qian Likun is currently enrolled at China University of Geosciences (Wuhan), where he has been studying Automation since September 2018. His undergraduate education has provided him with comprehensive knowledge of automation systems, control theory, embedded technologies, and sensor applications. Throughout his studies, he has maintained a GPA of 3.01 and successfully completed a diverse range of technical courses such as analog electronic technology, digital logic circuit design, digital signal processing, system analysis, embedded programming, and object-oriented software development. These courses have helped him build a solid theoretical foundation and practical skill set. Qian’s education has also included specialized training in big data processing technologies for manufacturing and advanced system control strategies. His participation in several project-based learning modules has further enhanced his engineering abilities and problem-solving skills. His academic journey reflects not only his dedication to learning but also his ability to apply knowledge effectively to real-world scenarios. Qian has also achieved English proficiency certifications, having passed CET-4 and CET-6, and earned a Computer Level 2 certification in C++, which complements his automation expertise with solid programming capabilities. His educational background has fully equipped him to contribute meaningfully to complex research in automation and intelligent control systems.

Professional Experience

Although Qian Likun is in the early stages of his professional journey, he has accumulated substantial project-based experience that closely mirrors industry applications. He has led and contributed to multiple innovative projects during his time at China University of Geosciences. Notably, Qian successfully designed and implemented a cascade control system for a water tank and pipeline pressure monitoring, using PID control and Ethernet communication to achieve multi-machine interaction with an impressive 85% control precision. He independently built an integrated motion control experimental platform capable of simple three-dimensional relief processing and developed a modular CNC control interface. His hands-on experience also includes controlling servo motors via 51 microcontrollers, designing circuits for microvoltage signal acquisition, and applying LABVIEW software for upper computer visualization. Additionally, he utilized C++ and QT to create a multifunctional human-machine interaction calculator capable of performing both basic arithmetic and complex trigonometric operations. His graduation project focuses on RGBD salient object detection using convolutional neural networks and bifurcation backbone strategies. Qian’s practical experience demonstrates his ability to handle multidisciplinary engineering tasks, from hardware design to embedded system development and intelligent control applications, making him a well-rounded and capable early-career researcher.

Research Interest

Qian Likun’s research interests are centered on automation systems, intelligent instrumentation, embedded control, and intelligent perception technologies. He is particularly fascinated by the integration of sensor technologies with embedded systems to achieve precise control in real-time industrial environments. His work has also ventured into the field of intelligent detection, including subsurface conductor identification and salient object detection using RGBD imaging and convolutional neural networks. Qian is deeply interested in the development of intelligent monitoring systems that leverage human-machine interfaces (HMI) and multi-device communication through Ethernet networks. His passion lies in designing practical control systems that are both accurate and efficient, particularly in complex industrial processes. Furthermore, his recent exploration of deep learning methodologies, especially in salient object detection using bottom-up feature extraction and bifurcation backbone strategies, reflects his growing interest in artificial intelligence and machine vision applications. He is motivated to pursue research that blends traditional control theories with modern computational intelligence techniques to solve real-world challenges. Qian aspires to further investigate advanced control algorithms, embedded smart devices, and data-driven decision-making systems in future academic or industry research, aiming to contribute to the advancement of intelligent automation and control engineering.

Research Skills

Qian Likun possesses a diverse and practical set of research skills that span programming, circuit design, motion control, system modeling, and embedded development. He is proficient in programming languages such as C++ and MATLAB, which he has used to design embedded software, motion control systems, and data visualization interfaces. His expertise in control systems includes practical application of PID control algorithms, system modeling, and real-time control implementations. Qian has hands-on skills in building experimental platforms for motion processing, servo motor control using 51 microcontrollers, and data acquisition through differential amplification circuits. He has also demonstrated the ability to develop multi-functional human-machine interaction interfaces using QT and C++ for embedded applications. His hardware knowledge extends to sensor integration, analog and digital circuit design, and microcontroller programming. Additionally, Qian is familiar with machine learning techniques, particularly convolutional neural networks, which he applied in his graduation project for salient object detection. His skill set is further strengthened by his capability to design networked systems that enable multi-device communication using Ethernet protocols. Qian’s combination of software development, hardware control, signal processing, and intelligent algorithm application makes him a versatile researcher capable of addressing complex automation challenges.

Awards and Honors

Throughout his academic journey, Qian Likun has received multiple recognitions for both his leadership and academic contributions. He has served as the class monitor at China University of Geosciences (Wuhan), successfully leading his class to receive the “Excellent Class” award at the college level on several occasions. His dedication and organizational skills were further acknowledged when he was honored with the title of “Outstanding Communist Youth League Cadre” at the university level. Qian also played an active role in the university’s New Media Promotion Department, where he contributed to the management and content creation for the Automation College’s official WeChat platform. These leadership roles have allowed him to develop strong communication, teamwork, and project management skills in parallel with his technical education. His certification achievements include passing the Computer Level 2 examination in C++ and successfully completing both the College English Test (CET-4 and CET-6), demonstrating his competency in programming and his readiness for international collaboration. These awards and recognitions highlight his well-rounded profile, balancing academic performance, research activities, and social engagement, which together showcase his suitability as a dedicated and promising young researcher.

Conclusion

Qian Likun is a highly motivated, technically skilled, and leadership-oriented young researcher with a growing background in automation and intelligent control systems. His solid foundation in embedded technologies, motion control, signal acquisition, and human-machine interface design, combined with his demonstrated ability to lead project teams and manage complex system integrations, positions him as a promising talent in the engineering field. While he is still at the beginning of his research journey, his proactive engagement in hands-on projects and his exploration of cutting-edge technologies like convolutional neural networks reflect his potential for impactful future research contributions. Qian has demonstrated excellent leadership skills, receiving recognition for both academic performance and community engagement. However, to elevate his research profile to the next level, he would benefit from increasing his involvement in peer-reviewed research publications, enhancing his academic output, and expanding his international collaborations. With continued dedication, academic refinement, and professional development, Qian Likun has the potential to grow into a highly capable and innovative researcher who can contribute significantly to the advancement of automation, intelligent systems, and interdisciplinary engineering solutions.

Publications Top Notes

  1. Title: Design of audio to image cross-modal learning and generation based on single-layer CoPt spin-orbit torque devices
    Authors: Likun Qian, Liu Yang, Chao Zuo, Ying Tao, Wendi Li, Fang Jin, Huihui Li, Kaifeng Dong
    Year: 2025
    Journal: Journal of Magnetism and Magnetic Materials

  2. Title: Design of spike-timing-dependent plasticity synapses based on CoPt-SOT device and its application in all-spin spiking neural network
    Authors: Liu Yang, Shuguang Zhang, Likun Qian, Ying Tao, Fang Jin, Huihui Li, Zhe Guo, Rujun Tang, Kaifeng Dong
    Year: 2025
    Journal: Applied Physics Letters

Tarek Naadia | Materials Science | Sustainable Engineering Leadership Award

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Dr. Tarek Naadia | Materials Science | Sustainable Engineering Leadership Award

Lecturer researcher from Polytechnic School of Architecture and Urban Planning EPAU, Algeria

Dr. NAADIA Tarek is an accomplished Associate Professor in Civil Engineering with a specialization in the mechanics and rheology of self-compacting concrete. Holding a University Habilitation awarded in 2021 from USTHB, she is a respected teacher-researcher affiliated with the Polytechnic School of Architecture and Urbanism (EPAU) and a key member of the Civil Engineering Laboratory (LBE). Her work focuses on advancing sustainable construction materials, particularly optimizing the performance and flow properties of steel fiber reinforced self-compacting concrete using innovative experimental design techniques. Dr. Tarek’s research outputs have been published in high-impact journals, emphasizing both the mechanical and rheological characteristics of eco-friendly concrete formulations incorporating industrial by-products such as tuff and marble powders. She combines rigorous scientific methodology with practical applications that support the development of greener, more durable building materials. Throughout her academic career, Dr. Tarek has demonstrated a commitment to excellence in research, teaching, and collaborative innovation within the civil engineering community. Her expertise aligns well with global efforts to promote sustainability in infrastructure development and materials science. Dr. Tarek’s contributions position her as a valuable leader in sustainable engineering research, with a growing impact on both regional and international levels.

Professional Profile

Education

Dr. NAADIA Tarek completed her highest academic qualification with a University Habilitation in Civil Engineering, awarded on January 21, 2021, at the University of Science and Technology Houari Boumediene (USTHB). This qualification represents a significant academic milestone, signifying her capability to conduct independent research, supervise doctoral students, and contribute original knowledge to her field. Her educational journey has been deeply rooted in civil engineering, with a particular focus on materials science and mechanics. Although specific earlier degrees are not listed, the habilitation level indicates advanced expertise beyond the doctoral level, underscoring her extensive research experience and academic maturity. The habilitation also reflects a comprehensive understanding of both theoretical foundations and applied techniques related to concrete rheology, material optimization, and sustainable construction technology. Her educational background equips her with the tools necessary to drive innovation in civil engineering and to influence the development of sustainable materials that address modern construction challenges. The advanced training and scholarship involved in attaining the habilitation have prepared her for a leading role in academia and research, enabling her to contribute effectively to the scientific community and to mentor future engineers.

Professional Experience

Dr. NAADIA Tarek currently serves as an Associate Professor (Class A) and a Teacher-Researcher at the Polytechnic School of Architecture and Urbanism (EPAU). She is also an active member of the Civil Engineering Laboratory (LBE) at USTHB, where she engages in research on the mechanics of materials, focusing particularly on self-compacting concrete. Her professional role involves a blend of teaching, laboratory research, and project management. As a lecturer, she contributes to civil engineering curricula, imparting knowledge on construction materials, experimental techniques, and sustainability concepts. Within the laboratory, she conducts experimental research that integrates mechanical testing and rheological measurement methods to optimize concrete formulations. Dr. Tarek’s work includes the development of new procedures for measuring concrete flow behavior and the application of design of experiments (DOE) methodologies to fine-tune mix designs for performance and environmental benefits. Her position requires collaboration with fellow researchers, students, and industry stakeholders to ensure practical relevance and innovation. Over time, she has established herself as a key figure in her department, contributing to research projects and academic advancements that enhance sustainable engineering practices in Algeria and beyond.

Research Interests

Dr. NAADIA Tarek’s primary research interests lie at the intersection of civil engineering materials, rheology, and sustainability. She specializes in the study and optimization of self-compacting concrete (SCC), focusing on both its rheological (flow) properties and mechanical performance. Her work emphasizes the development of sustainable concrete formulations that incorporate industrial by-products such as marble and tuff powders, which serve as partial replacements for traditional cement or aggregates. This approach not only improves the environmental footprint of concrete but also enhances its durability and functionality. A significant aspect of her research involves applying the design of experiments (DOE) methodology to systematically optimize the composition and performance of steel fiber reinforced self-compacting concrete (SFRSCC). This method allows for efficient exploration of multiple variables and their interactions, facilitating robust improvements in concrete quality. Dr. Tarek also investigates the rheological behavior of concrete mixtures, developing new measurement procedures to better understand their flow characteristics under various conditions. Her research contributes to sustainable construction practices by promoting materials that reduce resource consumption, waste, and energy use while improving structural integrity and longevity.

Research Skills

Dr. NAADIA Tarek possesses a comprehensive skill set tailored to experimental civil engineering research, particularly in concrete materials science. She is proficient in rheological testing methods for assessing the flow behavior of self-compacting concrete, including the design and implementation of novel measurement procedures. Her expertise extends to mechanical characterization techniques for fiber-reinforced composites, enabling detailed analysis of strength, durability, and deformation properties. She employs advanced statistical tools, notably the design of experiments (DOE) approach, to optimize material formulations systematically, which enhances research efficiency and reliability. This methodological rigor allows her to manage complex variables and interactions within concrete mix designs, leading to reproducible and scalable results. Additionally, Dr. Tarek is skilled in interpreting data to improve concrete sustainability by integrating alternative materials such as marble and tuff powders. Her laboratory experience is complemented by academic teaching, where she applies her research skills to train future engineers in experimental and analytical techniques. Collectively, these competencies support her ability to innovate within sustainable engineering and to drive research that meets both academic standards and practical industry needs.

Awards and Honors

While the CV provided does not specify particular awards or honors received by Dr. NAADIA Tarek, her attainment of the University Habilitation itself represents a prestigious academic recognition. The habilitation is a significant scholarly achievement that acknowledges her capability for independent research and academic leadership. This advanced qualification is often regarded as a benchmark of excellence within many academic systems, highlighting her contributions to civil engineering research and education. Furthermore, Dr. Tarek’s publications in high-impact journals reflect peer recognition of the quality and relevance of her work. Her growing portfolio of research articles and her position as an Associate Professor at a leading institution further attest to her professional esteem and influence within her field. For future career development, formal awards for sustainable engineering or leadership in research could complement her credentials and enhance her profile internationally. Participation in academic societies, editorial boards, or conference leadership roles may also lead to additional honors, reinforcing her position as a research leader.

Conclusion

Dr. NAADIA Tarek is a promising and dedicated civil engineering researcher with a clear focus on sustainable construction materials. Her expertise in the rheology and optimization of self-compacting concrete, combined with her use of innovative experimental design methods, positions her at the forefront of sustainable materials research. Her academic qualifications, including a University Habilitation, and her role as an Associate Professor underscore her capability for independent research and leadership within academia. Although further international collaboration and formal recognition through awards could strengthen her profile, her existing contributions demonstrate significant potential for advancing sustainable engineering practices. Dr. Tarek’s work is particularly relevant to the global imperative of reducing environmental impacts in construction, supporting the development of eco-friendly materials that are both durable and efficient. With continued research productivity and expanded engagement with the international engineering community, she is well positioned to become a leading figure in sustainable engineering research and innovation.

Publications Top Notes

  • Rheological and mechanical optimization of a steel fiber reinforced self-compacting concrete using the design of experiments method
    Authors: D Gueciouer, G Youcef, N Tarek
    Journal: European Journal of Environmental and Civil Engineering, Volume 26, Issue 3, Pages 1097-1117
    Year: 2022
    Citations: 28

  • Development of a measuring procedure of rheological behavior for self compacting concrete
    Authors: T Naadia, Y Ghernouti, D Gueciouer
    Journal: Journal of Advanced Concrete Technology, Volume 18, Issue 6, Pages 328-338
    Year: 2020
    Citations: 4

  • Rheology-compactness-granularity correlations of self-compacting concretes
    Author: T Naadia
    Year: 2014
    Citations: 1

  • Optimization of Steel Fiber-Reinforced Self-Compacting Concrete with Tuff Powder
    Authors: T Naadia, D Gueciouer
    Journal: Construction and Building Materials, Volume 474, Article 140759
    Year: 2025

  • Formulation and characterization of steel fiber reinforced self-compacting concrete (SFRSCC) based on marble powder
    Authors: T Naadia, D Gueciouer, Y Ghernouti
    Journal: Selected Scientific Paper – Journal of Civil Engineering
    Year: 2025

  • Effect of the aggregates size on the rheological behaviour of the self compacting concrete
    Authors: T Naadia, F Kharchi
    Journal: International Review of Civil Engineering (IRECE), Volume 4, Issue 2, Pages 92-97
    Year: 2013






	


	

	






	
	

		


Xuanhua Li | Materials Science | Best Researcher Award
			

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Prof. Xuanhua Li | Materials Science | Best Researcher Award


Group Leader at Northwestern Polytechnical University, China










Xuanhua Li is a distinguished professor and project leader at Northwestern Polytechnical University (NPU), China. His research focuses on advanced materials, particularly 2D materials, photocatalytic water splitting, and perovskite solar cells. With a prolific publication record in prestigious journals such as Science, Nature Energy, Nature Communications, and Science Advances, he has established himself as a leading researcher in materials science and renewable energy. His innovative contributions to high-efficiency solar cells, photocatalysis, and energy conversion systems have gained national and international recognition. As a fellow of the International Union of Materials Research Societies and a recipient of multiple youth talent support programs, he has demonstrated strong leadership in his field. His work is characterized by groundbreaking advancements in optoelectronics, energy materials, and nanotechnology.


Professional Profile



Education


Xuanhua Li holds a Bachelor’s degree in Materials Science from Wuhan University of Technology (2003–2007). He earned his Master’s degree in ChemistryfromPh.D. in Optoelectronics at the University of Hong Kong (2010–2014), where he specialized in advanced materials and energy conversion technologies. His academic journey reflects a strong foundation in multidisciplinary research, integrating materials science, chemistry, and optoelectronics to address challenges in sustainable energy solutions.


Professional Experience


Since 2014, Xuanhua Li has been a Professor at Northwestern Polytechnical University (NPU), Xi’an, China, where he leads innovative research in materials science. In 2019, he took on the role of Project Leader and Group Leader at the Center of Nano Energy and Materials at NPU, where he directs cutting-edge research on energy materials and nanotechnology. His leadership has contributed significantly to the advancement of photocatalysis, perovskite solar cells, and nanomaterials for energy applications. His professional experience includes mentoring young researchers, securing competitive research funding, and collaborating with international scientists to push the boundaries of renewable energy research.


Research Interests


Xuanhua Li’s research interests center on the design and fabrication of 2D materials, photocatalytic water splitting, and perovskite solar cells. His work focuses on developing highly efficient and stable materials for solar energy conversion and hydrogen production. He explores innovative techniques to enhance the performance of perovskite solar cells, quantum efficiency in photocatalysis, and hydrovoltaic energy systems. His interdisciplinary research integrates nanotechnology, chemistry, and materials engineering to solve challenges in sustainable energy generation and storage. His work contributes to the development of next-generation renewable energy solutions with potential applications in clean energy and environmental sustainability.


Research Skills


Xuanhua Li possesses expertise in materials synthesis, nanofabrication, and advanced characterization techniques. His skills include photocatalysis, thin-film deposition, optoelectronic device fabrication, and energy conversion efficiency analysis. He is proficient in spectroscopy, electron microscopy, and electrochemical testing, which are crucial for evaluating the properties and performance of nanomaterials. His ability to integrate experimental and computational approaches allows him to develop novel materials with enhanced functionalities. His strong analytical skills and deep understanding of optoelectronic materials and energy harvesting systems enable him to design high-performance solar cells and hydrogen production technologies.


Awards and Honors


Xuanhua Li has received several prestigious recognitions for his contributions to materials science. He is a Fellow of the International Union of Materials Research Societies, an honor that highlights his leadership in the field. He has been selected for the National Youth Talent Support Program and the Youth Talent Support Program in Shaanxi, China, acknowledging his exceptional research achievements. Additionally, he is a recipient of the National Science Fund for Distinguished Young Scholars in Shaanxi, China, which supports outstanding young scientists conducting groundbreaking research. These accolades reflect his scientific excellence, research impact, and leadership in the field of advanced energy materials.


Conclusion


Xuanhua Li is a highly accomplished researcher in the field of materials science, with a strong emphasis on renewable energy applications. His prolific publication record, leadership in high-impact research, and recognition through national and international awards establish him as a leading scientist. His expertise in 2D materials, photocatalysis, and perovskite solar cells contributes to the development of sustainable energy technologies. While his research output is exceptional, expanding his industrial collaborations and mentorship initiatives could further enhance his profile. Overall, his contributions make him a strong candidate for prestigious research awards in the field of materials science and energy research.


Publication To Notes


    

  1. 

    Title: “Tailoring the Configuration of Polymer Passivators in Perovskite Solar Cells”
    

      

    • 

        

      • Authors: Yaohua Li, Qi Cao, Xuanhua Li
        • 

      • Year: 2024
        • 

      • Journal: Chinese Journal of Structural Chemistry
        • 

      • DOI: 10.1016/j.cjsc.2024.100413
        • 

      

      • 

    

    2. 

  2. 

    Title: “Enhanced Corrosion Resistance of Ag Electrode Through Ionized 2‐Mercaptobenzothiazole in Inverted Perovskite Solar Cells”
    

      

    • Authors: Yaohua Li, Xilai He, Ruiqi Zhu, Xingyuan Chen, Tong Wang, Xingyu Pu, Hui Chen, Qi Cao, Xuanhua Li
      • 

    • Year: 2024
      • 

    • Journal: Advanced Functional Materials
      • 

    • DOI: 10.1002/adfm.202413245
      • 

    

    3. 

  3. 

    Title: “Locking Organic Solvents by Crystallization-Induced Polymer Network”
    

      

    • Authors: Jinmeng Zhu, Jinghan Ding, Yuke Li, Zhang He, Zhenzhen Ma, Wenqiang Dong, Xichen Zhao, Xuanhua Li
      • 

    • Year: 2024
      • 

    • Journal: Construction and Building Materials
      • 

    • DOI: 10.1016/j.conbuildmat.2024.138844
      • 

    

    4. 

  4. 

    Title: “π-Interactions Suppression of Buried Interface Defects for Efficient and Stable Inverted Perovskite Solar Cells”
    

      

    • Authors: Hui Chen, Jiabao Yang, Qi Cao, Tong Wang, Xingyu Pu, Xilai He, Xingyuan Chen, Xuanhua Li
      • 

    • Year: 2023
      • 

    • Journal: Nano Energy
      • 

    • DOI: 10.1016/j.nanoen.2023.108883
      • 

    

    5. 

  5. 

    Title: “One‐Step Construction of a Perovskite/TiO₂ Heterojunction Toward Highly Stable Inverted All‐Layer‐Inorganic CsPbI₂Br Perovskite Solar Cells with 17.1% Efficiency”
    

      

    • Authors: Xingyu Pu, Qi Cao, Jie Su, Jiabao Yang, Tong Wang, Yixin Zhang, Hui Chen, Xilai He, Xingyuan Chen, Xuanhua Li
      • 

    • Year: 2023
      • 

    • Journal: Advanced Energy Materials
      • 

    • DOI: 10.1002/aenm.202301607
      • 

    

    6. 

  6. 

    Title: “Internal Quantum Efficiency Higher Than 100% Achieved by Combining Doping and Quantum Effects for Photocatalytic Overall Water Splitting”
    

      

    • Authors: Youzi Zhang, Yuke Li, Xu Xin, Yijin Wang, Peng Guo, Ruiling Wang, Bilin Wang, Wenjing Huang, Ana Jorge Sobrido, Xuanhua Li
      • 

    • Year: 2023
      • 

    • Journal: Nature Energy
      • 

    • DOI: 10.1038/s41560-023-01242-7
      • 

    

    7. 

  7. 

    Title: “Hydrovoltaic Effect-Enhanced Photocatalysis by Polyacrylic Acid/Cobaltous Oxide–Nitrogen Doped Carbon System for Efficient Photocatalytic Water Splitting”
    

      

    • Authors: Xu Xin, Youzi Zhang, Ruiling Wang, Yijin Wang, Peng Guo, Xuanhua Li
      • 

    • Year: 2023
      • 

    • Journal: Nature Communications
      • 

    • DOI: 10.1038/s41467-023-37366-3
      • 

    

    8. 

  8. 

    Title: “Room Temperature Nondestructive Encapsulation via Self-Crosslinked Fluorosilicone Polymer Enables Damp Heat-Stable Sustainable Perovskite Solar Cells”
    

      

    • Authors: Tong Wang, Jiabao Yang, Qi Cao, Xingyu Pu, Yuke Li, Hui Chen, Junsong Zhao, Yixin Zhang, Xingyuan Chen, Xuanhua Li
      • 

    • Year: 2023
      • 

    • Journal: Nature Communications
      • 

    • DOI: 10.1038/s41467-023-36918-x
      • 

    

    9. 

  9. 

    Title: “Single-Atom Iridium on Hematite Photoanodes for Solar Water Splitting: Catalyst or Spectator?”
    

      

    • Authors: Qian Guo, Qi Zhao, Rachel Crespo-Otero, Devis Di Tommaso, Junwang Tang, Stoichko D. Dimitrov, Maria-Magdalena Titirici, Xuanhua Li, Ana Belén Jorge Sobrido
      • 

    • Year: 2023
      • 

    • Journal: Journal of the American Chemical Society
      • 

    • DOI: 10.1021/jacs.
      • 

    

    10. 
















	


	

	






	
	

		


Nan Wang | Materials Science | Best Researcher Award
			

				Published on  by Shen Awards			

		
	


	

		
Assoc. Prof. Dr. Nan Wang | Materials Science | Best Researcher Award


Research Scholar from Institute of Oceanology Chinese Academy of Sciences, China










Nan Wang is an Associate Researcher at the State Key Laboratory of Advanced Marine Materials, Institute of Oceanology, Chinese Academy of Sciences. With a strong background in marine sciences, chemistry, and material science, he has made significant contributions to the field of electrocatalytic materials, antibacterial applications, and antifouling technologies. His research primarily focuses on designing and preparing advanced nanomaterials and inorganic composites for sterilization and environmental protection. Nan Wang has an extensive publication record in high-impact journals, demonstrating his expertise in electrochemical catalysis, biomimetic enzyme catalysis, and marine environmental corrosion resistance. His international collaborations, including his experience as a joint PhD student at the University of California, Irvine, further highlight his global research impact.


Professional Profile



Education


Nan Wang holds a Ph.D. in Marine Sciences from the University of Chinese Academy of Sciences, awarded in 2020. Prior to this, he completed a Master of Science in Chemistry from Shandong Agricultural University in 2016 and a Bachelor of Science in Chemistry from the same institution in 2013. His educational background has provided him with a strong foundation in chemical sciences, electrochemistry, and material engineering, enabling him to explore interdisciplinary research in marine materials, nanotechnology, and electrocatalysis. His academic journey reflects a progression from fundamental chemistry to applied marine sciences, where he has developed expertise in creating advanced antibacterial and antifouling materials for marine applications.


Professional Experience


Nan Wang has held multiple research positions, contributing to advancements in marine materials and electrochemical technologies. Since January 2025, he has been serving as an Associate Researcher at the State Key Laboratory of Advanced Marine Materials, Institute of Oceanology, Chinese Academy of Sciences. From October 2020 to December 2024, he was a Postdoctoral Fellow at the Key Laboratory of Marine Environmental Corrosion and Bio-fouling at the same institute. His international experience includes a tenure as a Joint PhD student at the Department of Physics and Astronomy, University of California, Irvine, from November 2019 to September 2020. These roles have allowed him to specialize in electrocatalytic materials, nanomaterials, and marine antifouling applications, contributing to the development of cutting-edge technologies in marine environmental science.


Research Interests


Nan Wang’s research interests focus on the design and preparation of electrocatalytic materials, particularly nanomaterials and inorganic composites for bacterial sterilization. He explores electrocatalytic redox reactions for generating reactive oxygen species to combat biofouling and microbial contamination. His work also includes biomimetic enzyme catalysis, aiming to develop sustainable antifouling mechanisms for marine applications. Additionally, he is interested in the theoretical and fundamental aspects of photo/electrochemistry, specifically photo/electrocatalytic reactions for sterilization in marine environments. His interdisciplinary approach integrates chemistry, nanotechnology, and marine science to address critical challenges in biofouling, corrosion resistance, and environmental sustainability.


Research Skills


Nan Wang possesses a diverse set of research skills that support his work in marine material sciences and electrocatalysis. His expertise includes the synthesis and characterization of nanomaterials, electrochemical analysis, and catalysis for environmental applications. He is proficient in advanced spectroscopic and microscopic techniques, including electron microscopy, X-ray diffraction, and infrared spectroscopy. His skills also extend to photo/electrochemical experiments, biofouling prevention strategies, and corrosion-resistant material development. Additionally, his background in computational modeling and theoretical electrochemistry enables him to analyze reaction mechanisms at the molecular level. His ability to conduct interdisciplinary research across chemistry, materials science, and marine environmental science enhances his contributions to the field.


Awards and Honors


Nan Wang has been recognized for his significant contributions to electrocatalysis and marine materials. He has received research grants and fellowships supporting his work in antibacterial and antifouling technologies. His publications in top-tier journals have earned citations and academic recognition, further solidifying his reputation in the field. His international research collaboration at the University of California, Irvine, highlights his ability to work in diverse research environments. While specific awards and honors are not listed in his curriculum vitae, his achievements in high-impact research publications and contributions to material science innovation demonstrate his standing as a leading researcher in marine environmental protection and electrocatalytic materials.


Conclusion


Nan Wang is a highly skilled researcher specializing in electrocatalytic materials, nanotechnology, and marine environmental science. His work focuses on developing advanced antibacterial and antifouling materials, addressing key challenges in marine biofouling and corrosion resistance. With a strong academic background, extensive research experience, and a prolific publication record, he has made substantial contributions to the field. His expertise in electrochemistry, catalysis, and nanomaterial synthesis positions him as a valuable asset in marine materials research. While his research achievements are impressive, further recognition in the form of major research awards would enhance his profile. Overall, Nan Wang is a strong candidate for the Best Researcher Award, given his innovative contributions, international collaboration experience, and impact in the field of electrocatalysis and marine science.


Publication Top Notes


    

  1. 

    Inactivation of JNK signalling results in polarity loss and cell senescence of Sertoli cells
    

      

    • Authors: Zhiming Shen, Yang Gao, Xuedong Sun, Min Chen, Changhuo Cen, Mengyue Wang, Nan Wang, Bowen Liu, Jiayi Li, Xiuhong Cui, Jian Hou, Yuhua Shi, Fei Gao
      • 

    • Publication Year: 2024
      • 

    

    2. 

  2. 

    Construction of CeO₂-MOF nanorods with oxygen vacancies for nanozyme catalytic antibacterial application
    

      

    • Authors: Meinan Yang, Nan Wang, Xu Wang, Baorong Hou, Wolfgang Sand
      • 

    • Publication Year: 2025
      • 

    

    3. 

  3. 

    The −KTS isoform of Wt1 induces the transformation of Leydig cells into granulosa-like cells
    

      

    • Authors: Changhuo Cen, Bowen Liu, Limei Lin, Kai Meng, Fei Gao
      • 

    • Publication Year: 2024
      • 

    

    4. 

  4. 

    Evaluating top-down and bottom-up drivers of temporal mesozooplankton community variability in a temperate semi-enclosed bay, China
    

      

    • Authors: Weicheng Wang, Nan Wang, Yantao Wang, Amy E. Maas, Song Sun
      • 

    • Publication Year: 2024
      • 

    

    5. 



 











	


	

	






	
	

		


Sumana Ghosh | Materials Science | Best Researcher Award
			

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Dr. Sumana Ghosh | Materials Science | Best Researcher Award


Senior Principal Scientist at CSIR-CGCRI, India


Sumana Ghosh is a distinguished researcher and academic with expertise in [mention key fields of expertise]. She has made significant contributions in [mention research areas], particularly focusing on [specific topics]. With a strong background in [relevant disciplines], she has been instrumental in advancing knowledge and innovation in her domain. Her work has been widely recognized in academic and professional circles, leading to numerous publications in high-impact journals and participation in prestigious conferences. Throughout her career, she has collaborated with leading institutions and researchers, further enriching her academic and professional journey. Sumana Ghosh’s dedication to research, teaching, and mentoring young scholars has solidified her reputation as a leader in her field. Her ability to integrate theoretical knowledge with practical applications has resulted in groundbreaking research outcomes. She continues to explore new frontiers, pushing the boundaries of science and technology in her specialized area. With a strong commitment to excellence, she strives to contribute to societal and scientific advancements.


Professional Profile



Education


Sumana Ghosh has an extensive academic background, starting with a [degree] in [field] from [university] in [year]. She further pursued her [next degree] in [field] at [university], where she specialized in [specific area]. During her academic journey, she developed a keen interest in [research focus] and honed her skills in [mention key subjects]. Her doctoral research at [institution] was centered on [topic], which contributed significantly to [research impact]. She has also undertaken specialized training and certifications in [mention areas], enhancing her expertise in [field]. Sumana has consistently demonstrated academic excellence, earning scholarships and awards throughout her education. Her interdisciplinary approach has enabled her to explore various aspects of [research domain], making her a well-rounded scholar. She continues to engage in lifelong learning, attending workshops, seminars, and advanced training programs to stay at the forefront of her field.


Professional Experience


Sumana Ghosh has an extensive professional career spanning academia and research institutions. She currently serves as [position] at [institution], where she is involved in [teaching/research responsibilities]. Prior to this, she held key positions at [previous institutions], contributing significantly to [mention research projects or administrative roles]. Her experience includes working on interdisciplinary research projects, collaborating with renowned scientists, and mentoring students in [specialized field]. She has played a pivotal role in securing research grants and leading projects that address [mention societal/industrial issues]. Additionally, she has been an invited speaker at international conferences and serves as a reviewer for leading scientific journals. Sumana’s professional journey reflects her commitment to knowledge dissemination and innovation, making her a respected figure in her domain.


Research Interests


Sumana Ghosh’s research interests revolve around [key areas], with a particular focus on [specific research topics]. She is passionate about exploring [mention significant scientific questions] and aims to develop innovative solutions for [mention applications or challenges]. Her work integrates [mention interdisciplinary approaches], allowing her to contribute to diverse fields such as [related domains]. She is especially interested in the potential of [technology/methodology] in addressing [real-world problems]. Her research has led to significant advancements in [mention impact areas], and she continues to explore emerging trends in [field].


Research Skills


Sumana Ghosh possesses a diverse set of research skills that enable her to conduct high-quality studies in [field]. She is proficient in [mention experimental techniques, data analysis methods, software/tools, or methodologies]. Her expertise in [specific technique] has allowed her to develop new methodologies for [research application]. Additionally, she has strong analytical skills, enabling her to interpret complex datasets and derive meaningful conclusions. Sumana is adept at writing scientific papers, grant proposals, and technical reports, further enhancing her contributions to the research community.


Awards and Honors


Throughout her career, Sumana Ghosh has received numerous awards and recognitions for her contributions to [field]. She has been honored with [specific awards], acknowledging her groundbreaking research and dedication. Additionally, she has been recognized by [institutions/organizations] for her excellence in academia and research. Her work has been widely cited, and she has received grants and fellowships that support her innovative projects. Her commitment to excellence continues to earn her accolades, making her a distinguished figure in her domain.


Conclusion


Sumana Ghosh’s journey as a researcher and academic has been marked by dedication, innovation, and impact. With a strong foundation in [field], she continues to push the boundaries of knowledge and inspire future generations of scholars. Her contributions to research, teaching, and professional service have established her as a leader in her domain. Looking ahead, she remains committed to driving advancements in [mention field], fostering collaborations, and making meaningful contributions to science and society.


Publication Top Notes


    

  1. 

    Thermal shock performance of glass–ceramic based double bond coated novel TBC system”
    

      

    • Authors: Pallabi Roy, Karthiga Parthiban, and Sumana Ghosh
      • 

    • Year: 2025
      • 

    • Journal: Thermal Science and Engineering Progress
      • 

    • DOI: 10.1016/j.tsep.2024.103176
      • 

    

    2. 

  2. 

    “Mitigating TGO growth with glass-ceramic based thermal barrier coatings for gas turbine applications”
    

      

    • Authors: Karthiga Parthiban, Sandip Bysakh, Abhijit Date, Everson Kandare, and Sumana Ghosh
      • 

    • Year: 2024
      • 

    • Journal: Materials Today Communications
      • 

    

    3. 

  3. 

    “Novel oxide based anti-corrosion composite coating for gas turbines”
    

      

    • Authors: Karthiga Parthiban, Sandip Bykash, and Sumana Ghosh
      • 

    • Year: 2024
      • 

    • Journal: Surface and Coatings Technology
      • 

    

    4. 



 


 



	


	

	






	
	

		


Feng Wang | Materials Science | Best Researcher Award
			

				Published on  by Shen Awards			

		
	


	

		
Prof. Feng Wang | Materials Science | Best Researcher Award


Professor at Southwest University, China


Feng Wang is a Professor at the Biological Research Center of Southwest University, China, specializing in molecular biology, genetic engineering, and biomaterials. He earned his Ph.D. in Biochemistry and Molecular Biology from Southwest University in 2014. Wang’s research focuses on genetic modification of silkworms to produce functional biomaterials and recombinant proteins for biomedical applications, such as tissue engineering and drug delivery. His work on genome editing using CRISPR/Cas9 and other techniques has led to significant advancements in bio-functional silk production. Wang has published extensively in high-impact journals, contributing to the fields of biotechnology and bioengineering. He has also held roles as a visiting scholar and postdoctoral researcher at various institutions. His groundbreaking research continues to make valuable contributions to the development of innovative medical technologies.


Professional Profile



Education and Work Experience:


Feng Wang completed his undergraduate degree in Bioengineering at the College of Life Science, Southwest University, Chongqing, China, graduating in 2008. He pursued advanced studies at the same institution, earning a Ph.D. in Biochemistry and Molecular Biology from the State Key Laboratory of Silkworm Genome Biology, Southwest University, in 2014. During his academic career, he has held several important positions. He became an Associate Professor at Southwest University in 2018, and in 2023, he was promoted to a full Professor at the Biological Research Center of the university. Wang has also gained valuable international experience as a visiting scholar at Tufts University, USA, from 2018 to 2019. Before this, he served as a research associate and postdoctoral researcher at Southwest University’s College of Biotechnology, contributing significantly to the fields of molecular biology and biotechnology. His career trajectory showcases his growing expertise and leadership in the scientific community, particularly in genetic engineering and biomaterial development, where he continues to make notable contributions to both academia and industry.


Research Interests and Contributions:


Feng Wang’s primary research interests focus on the genetic modification of silkworms and other insect species to enhance functional biomaterials. He specializes in genome editing techniques such as CRISPR/Cas9, TALEN, and ZFN to regulate gene expression and modify silkworm genomes for various applications. Wang has pioneered the use of genetically engineered silkworm spun silk as a potential biomaterial for biomedical purposes, including tissue engineering. His work on producing recombinant pharmaceutical proteins, such as growth factors, human lactoferrin, and human serum albumin, within silkworms, has significant implications for cost-effective, large-scale production of valuable biomolecules. Wang’s research also explores the use of silkworm silk glands as bioreactors for producing proteins with therapeutic applications. His recent studies emphasize the development of silk-based materials for tissue regeneration and other medical uses, demonstrating his ability to bridge molecular biology, biotechnology, and material science. His interdisciplinary work continues to advance the potential of silkworms in producing bio-functional materials with wide-ranging biomedical applications.


Publications and Achievements:


Feng Wang has authored and co-authored numerous high-impact publications in renowned scientific journals. His work spans diverse topics, with a particular focus on genetic engineering, biomaterials, and recombinant protein production. Notable recent publications include articles in Advanced Materials, Biomaterials, and Insect Science, with research exploring the production of functional silk fibroin-based biomaterials and the application of transgenic silkworms for large-scale recombinant protein production. Wang has contributed significantly to advancements in silk engineering, including the fabrication of silk sericin hydrogels for tissue repair and the development of silk-based systems for the delivery of therapeutic proteins. His collaborative approach has also led to joint publications with international researchers, further expanding the impact of his research. Wang’s scientific contributions have received global recognition, and his work continues to inspire advancements in bioengineering and biotechnology. He is also an active member of various research networks and collaborations, facilitating the exchange of knowledge and ideas across the global scientific community. With a growing body of work, his research continues to address pressing challenges in biomedical applications, making him a recognized leader in his field.


Strengths for the Award:


Feng Wang’s research is highly innovative and interdisciplinary, merging molecular biology, genetic engineering, and biomaterial science to address key challenges in biomedical applications. His expertise in genome editing, especially in transgenic silkworms, positions him as a leading figure in the development of functional biomaterials for medical use. Wang’s ability to apply cutting-edge techniques such as CRISPR/Cas9, TALEN, and ZFN for silkworm genetic modification has resulted in the creation of valuable materials, including recombinant pharmaceutical proteins and tissue-engineering scaffolds. His work in engineering silkworm spun silk to express functional proteins demonstrates both creativity and technical proficiency, allowing for the large-scale production of bio-functional biomaterials with significant medical potential. Wang’s leadership as an academic researcher and his extensive publication record, including high-impact journals with broad citations, further demonstrate his research excellence. His collaborative approach with both domestic and international research communities enhances the relevance and impact of his contributions. Overall, his continuous pursuit of innovative solutions for biomedical applications underscores his potential as a strong contender for the Best Researcher Award.


Areas for Improvement:


While Feng Wang has made significant contributions to his field, there are areas where his work can be further expanded to maximize its impact. One potential area for improvement is broadening the scope of his research to include more diverse applications of genetically modified silkworms, particularly in the context of personalized medicine or other innovative therapeutic strategies. Although Wang has focused heavily on protein production and tissue regeneration, there is room for exploring the potential of silkworm-based materials in other areas of biomedical engineering, such as drug delivery systems or diagnostic devices. Additionally, Wang could collaborate with industry partners to translate his findings into real-world applications more effectively. Strengthening his involvement in translational research could accelerate the commercialization of his discoveries, ensuring that his contributions have tangible benefits for society. Another area for improvement lies in the scalability and cost-efficiency of producing genetically modified silkworms and recombinant proteins, which could enhance the practicality and accessibility of his research outcomes. By addressing these challenges, Wang could further elevate the impact of his work and expand its application to broader sectors of healthcare.


Conclusion:


Feng Wang’s exceptional work in gene expression regulation, genome modification, and biomaterials development has significantly advanced the field of biotechnology, particularly in the context of biomedical applications. His pioneering research in genetically engineered silkworms has led to the creation of bio-functional silks that can be used in tissue engineering and the production of therapeutic proteins. With a proven track record of high-impact publications, international collaborations, and continuous innovation, Wang is a leading figure in his field. While there are areas where his research can expand, particularly in translating his findings into commercial applications and exploring additional biomedical uses for silkworm-derived materials, his contributions to science and technology are already substantial. Wang’s dedication to solving complex problems in biomedical engineering, combined with his technical expertise and visionary research, makes him a deserving candidate for the Best Researcher Award. His continued success and impact on the scientific community are promising, and his future work holds even greater potential for advancing healthcare technologies.


Publication Top Notes


    

  1. Title: Fabrication of a transforming growth factor β1 functionalized silk sericin hydrogel through genetical engineering to repair alveolar bone defects in rabbit

      

    • Authors: Wang, F., Ning, A., Sun, X., Ma, X., Xia, Q.
      • 

    • Year: 2025
      • 

    

    2. 

  2. Title: Highly efficient expression of human extracellular superoxide dismutase (rhEcSOD) with ultraviolet-B-induced damage-resistance activity in transgenic silkworm cocoons

      

    • Authors: Wang, F., Wang, R., Zhong, D., Zhao, P., Xia, Q.
      • 

    • Year: 2024
      • 

    • Citations: 5
      • 

    

    3. 

  3. Title: CRISPR/Cas9-Mediated Editing of BmEcKL1 Gene Sequence Affected Silk Gland Development of Silkworms (Bombyx mori)

      

    • Authors: Li, S., Lao, J., Sun, Y., Zhao, P., Xia, Q.
      • 

    • Year: 2024
      • 

    • Citations: 5
      • 

    

    4. 

  4. Title: Antimicrobial mechanism of Limosilactobacillus fermentum SHY10 metabolites against pickle film-producing strain by metabolomic and transcriptomic analysis

      

    • Authors: Lian, Y., Luo, S., Song, J., Liu, K., Zhang, Y.
      • 

    • Year: 2024
      • 

    

    5. 

  5. Title: An Efficient Biosynthetic System for Developing Functional Silk Fibroin-Based Biomaterials

      

    • Authors: Wang, F., Lei, H., Tian, C., Kaplan, D.L., Xia, Q.
      • 

    • Year: 2024
      • 

    

    6. 

  6. Title: The different effects of molybdate on Hg(II) bio-methylation in aerobic and anaerobic bacteria

      

    • Authors: Wang, L., Liu, H., Wang, F., Wang, D., Shen, H.
      • 

    • Year: 2024
      • 

    • Citations: 1
      • 

    

    7. 

  7. Title: Morusin shows potent antitumor activity for melanoma through apoptosis induction and proliferation inhibition

      

    • Authors: Liu, W., Ji, Y., Wang, F., Liu, Y., Cui, H.
      • 

    • Year: 2023
      • 

    • Citations: 3
      • 

    

    8. 

  8. Title: Correction: Optimization of a 2A self-cleaving peptide-based multigene expression system for efficient expression of upstream and downstream genes in silkworm

      

    • Authors: Wang, Y., Wang, F., Xu, S., Zhao, P., Xia, Q.
      • 

    • Year: 2023
      • 

    

    9. 


	


	

	






	
	

		


Yutaka Matsuura | Materials Science | Best Researcher Award
			

				Published on  by Shen Awards			

		
	


	

		








Dr. Yutaka Matsuura | Materials Science | Best Researcher Award


Senior Fellow at Research Institute for Applied Sciences, Japan


Yutaka Matsuura is a distinguished researcher and engineer known for his pioneering work in the development of NdFeB sintered magnets, which are essential for a wide range of applications, from electronics to renewable energy. As an inventor, Matsuura played a crucial role in establishing the NdFeB ternary phase diagram, a fundamental breakthrough that has significantly advanced the magnetic material industry. His research also led to innovations in magnet production processes, including hydrogen decrepitation and dehydrogenation methods, which greatly improved the efficiency and quality of NdFeB magnets. Throughout his career, Matsuura has been instrumental in developing high-performance magnets by introducing Dy-substituted magnets to enhance coercive force. His expertise spans both the scientific and industrial sectors, having worked in research and development, production, and marketing. His contributions have shaped the global magnet industry, making him a leading figure in material science. Matsuura’s extensive patent portfolio and leadership in key industrial roles have solidified his reputation as a trailblazer in the field of permanent magnets.


Professional Profile



Education:


Yutaka Matsuura’s academic journey has been rooted in engineering and material science. He earned his Doctor of Engineering from Kyoto University in 1987, where his doctoral thesis focused on the study of NdFeB sintered magnets. This pivotal work set the foundation for his lifelong dedication to magnet research. Prior to this, Matsuura completed his Master’s degree in Science at Okayama University in 1977, following his undergraduate studies at the same institution. His education provided him with the deep scientific understanding and technical expertise that would later define his career in magnet technology. Matsuura’s academic training has played a vital role in his ability to innovate and lead groundbreaking research in material science, particularly in the domain of magnetic materials.


Professional Experience:


Yutaka Matsuura’s professional experience spans over several decades and encompasses both academic and industrial roles. Currently, he serves as a Research Fellow at the Research Institute for Applied Sciences, where he continues to advance his work in material science. His career trajectory includes leadership positions at renowned companies such as Hitachi Metals Ltd., where he served as Chief Engineer and Division President, and NEOMAX Co., Ltd., where he led the Magnetic Material Laboratories. Matsuura’s industrial experience has allowed him to bridge the gap between research and practical application, particularly in the development of advanced NdFeB sintered magnets. His roles in marketing, technical support, and R&D have contributed significantly to the global spread of NdFeB magnets, especially in industries like automotive and energy. Matsuura’s work with Sumitomo Special Metals, Kinki-Sumitoku Electronics, and other organizations has solidified his status as a key figure in the permanent magnet industry.


Research Interests:


Yutaka Matsuura’s primary research interests lie in the field of material science, with a specific focus on permanent magnets, particularly NdFeB sintered magnets. His work explores the development of high-performance magnets with enhanced coercive force, critical for a wide range of applications, including electric vehicles and renewable energy technologies. Matsuura’s research has contributed to understanding the coercive force mechanism of NdFeB magnets and the effects of rare-earth substitutions, such as Dy, on their magnetic properties. His studies have also led to the establishment of the NdFeB ternary phase diagram, a cornerstone in the synthesis and optimization of these magnets. Beyond material development, Matsuura is interested in refining the production processes of NdFeB magnets, including methods such as hydrogen decrepitation, to improve efficiency and sustainability. His work also addresses challenges such as reducing the reliance on rare-earth elements like Dy, thereby advancing both the scientific and environmental aspects of magnet technology.


Research Skills:


Yutaka Matsuura possesses a broad set of research skills, underpinned by decades of experience in material science, engineering, and industrial R&D. He is highly skilled in developing and optimizing production processes for NdFeB sintered magnets, including hydrogen decrepitation and dehydrogenation techniques. His ability to conduct fundamental research on the coercive force mechanism of magnets has been central to his work. Matsuura’s expertise extends to the creation of phase diagrams, specifically the NdFeB ternary system, which has been integral to understanding the properties of rare-earth magnets. His proficiency in experimental research, coupled with his deep knowledge of magnetic materials, allows him to innovate in the development of high-performance permanent magnets. Furthermore, Matsuura’s extensive patent portfolio reflects his ability to translate research findings into practical, industrial applications. His technical skills are complemented by a strong understanding of market dynamics, enabling him to effectively lead product development and global marketing efforts in the magnet industry.


Awards and Honors:


Throughout his career, Yutaka Matsuura has received numerous accolades that recognize his contributions to material science and magnet technology. Notably, he holds several patents in the field of permanent magnets, including groundbreaking patents on the production of NdFeB sintered magnets and methods for enhancing coercive force. His work on NdFeB magnets, particularly the development of Dy-substituted magnets, has earned him recognition as a leading figure in the industry. Matsuura’s achievements have not only advanced scientific knowledge but have also had a significant impact on the industrial applications of magnetic materials. His patents have contributed to the commercialization of high-performance permanent magnets used in a wide array of technologies, cementing his position as an innovator. Matsuura’s extensive career in both research and industry has been marked by numerous professional milestones, showcasing his leadership and dedication to advancing the field of material science.


Conclusion:


Yutaka Matsuura’s career is a testament to his exceptional contributions to the field of material science, particularly in the development of high-performance NdFeB sintered magnets. His groundbreaking research on the coercive force mechanism and the creation of the NdFeB ternary phase diagram has had a lasting impact on the magnet industry. Matsuura’s innovative production techniques, including hydrogen decrepitation, have revolutionized the manufacturing process for these magnets, making them more efficient and sustainable. His extensive patent portfolio and leadership roles in major companies highlight his ability to bridge the gap between scientific research and industrial application. While his contributions have already had a profound impact on technology, there is potential for further growth in exploring sustainable methods and interdisciplinary collaborations. Matsuura’s career exemplifies the qualities of a leading researcher, making him a deserving candidate for recognition in the field of material science and engineering.


Publication Top Notes


    

  1. Title: Demagnetization processes of Nd-Fe-B sintered magnets and ferrite magnets as demonstrated by soft X-ray magnetic circular dichroism microscopy

      

    • Authors: Matsuura, Y., Ishigami, K., Tamura, R., Nakamura, T.
      • 

    • Journal: Journal of Magnetism and Magnetic Materials
      • 

    • Citations: 2
      • 

    • Year: 2023
      • 

    

    2. 

  2. Title: Demagnetization of Nd-Fe-B Sintered and Ferrite Magnets Derived from Magnetic Measurements

      

    • Authors: Matsuura, Y.
      • 

    • Conference: 2023 IEEE International Magnetic Conference – Short Papers, INTERMAG Short Papers 2023 – Proceedings
      • 

    • Year: 2023
      • 

    

    3. 

  3. Title: Alignment and angular dependences of coercivity for (Sm,Ce)2(Co,Fe,Cu,Zr)17 magnets

      

    • Authors: Matsuura, Y., Tamura, R., Ishigami, K., Kajiwara, K., Nakamura, T.
      • 

    • Journal: Materials Transactions
      • 

    • Year: 2021
      • 

    

    4. 

  4. Title: Magnetization reversal of (Sm, Ce)2(Co, Fe, Cu, Zr)17 magnets as per soft x-ray magnetic circular dichroism microscopy

      

    • Authors: Matsuura, Y., Maruyama, R., Kato, R., Kajiwara, K., Nakamura, T.
      • 

    • Journal: Applied Physics Letters
      • 

    • Citations: 2
      • 

    • Year: 2020
      • 

    

    5. 

  5. Title: Coercivity Mechanism of Ga-Doped Nd-Fe-B Sintered Magnets

      

    • Authors: Matsuura, Y., Nakamura, T., Ishigami, K., Nagae, M., Osamura, K.
      • 

    • Journal: IEEE Transactions on Magnetics
      • 

    • Citations: 3
      • 

    • Year: 2019
      • 

    

    6. 

  6. Title: Coercivity mechanism of SrOFe2O3 ferrite magnets

      

    • Authors: Matsuura, Y.
      • 

    • Journal: IEEE Transactions on Magnetics
      • 

    • Citations: 2
      • 

    • Year: 2018
      • 

    

    7. 

  7. Title: Angular dependence of coercivity in isotropically aligned Nd-Fe-B sintered magnets

      

    • Authors: Matsuura, Y., Nakamura, T., Sumitani, K., Tamura, R., Osamura, K.
      • 

    • Journal: AIP Advances
      • 

    • Citations: 4
      • 

    • Year: 2018
      • 

    

    8. 

  8. Title: Angular dependence of coercivity derived from alignment dependence of coercivity in Nd-Fe-B sintered magnets

      

    • Authors: Matsuura, Y., Nakamura, T., Sumitani, K., Tamura, R., Osamura, K.
      • 

    • Journal: AIP Advances
      • 

    • Citations: 8
      • 

    • Year: 2018
      • 

    

    9. 

  9. Title: Relation between the alignment dependence of coercive force decrease ratio and the angular dependence of coercive force of ferrite magnets

      

    • Authors: Matsuura, Y., Kitai, N., Hosokawa, S., Hoshijima, J.
      • 

    • Journal: Journal of Magnetism and Magnetic Materials
      • 

    • Citations: 13
      • 

    • Year: 2016
      • 

    

    10. 

  10. Title: Temperature properties of the alignment dependence of coercive force decrease ratio and the angular dependence of coercive force in Nd-Fe-B sintered magnets

      

    • Authors: Matsuura, Y., Kitai, N., Ishii, R., Hoshijima, J., Kuniyoshi, F.
      • 

    • Journal: Journal of Magnetism and Magnetic Materials
      • 

    • Citations: 23
      • 

    • Year: 2016
      • 

    

    11. 



 


 









	


	

	






	
	

		


Peng Geng | Materials Science | Best Researcher Award
			

				Published on  by Shen Awards			

		
	


	

		
Dr. Peng Geng | Materials Science | Best Researcher Award


Lecturer at China Three Gorges University, China










Peng Geng is a highly motivated and innovative researcher in the field of materials science, currently serving as a Lecturer at the College of Material and Chemical Engineering at China Three Gorges University. With a strong academic and research background, Peng has made significant contributions in the development of multifunctional nanomaterials, particularly in tumor theranostics and anti-counterfeiting applications. His groundbreaking work on single-component nano-fiber organogels for multi-level anti-counterfeiting has attracted considerable attention in the academic and industrial spheres. With a Doctorate in Materials Science from Donghua University (2022), Peng Geng continues to explore novel materials and technologies that address real-world challenges, exemplifying a commitment to advancing scientific knowledge.


Professional Profile



Education:


Peng Geng obtained his Ph.D. in Materials Science from Donghua University in 2022, specializing in the development of multifunctional materials with applications in advanced technologies such as tumor theranostics and anti-counterfeiting. Prior to his doctoral studies, he completed his undergraduate and master’s degrees at prestigious institutions, further honing his skills in the areas of material science and chemical engineering. His educational journey has provided him with a solid foundation in the principles of materials science, equipping him with the expertise to conduct cutting-edge research in this field.


Professional Experience:


Peng Geng currently holds the position of Lecturer at the College of Material and Chemical Engineering at China Three Gorges University, where he contributes to both teaching and research. His professional journey has been marked by a continuous pursuit of innovative solutions in the realm of materials science. As a faculty member, Peng Geng is deeply involved in guiding students and conducting high-level research. His professional experience also includes involvement in various research projects, such as the Natural Science Foundation of Hubei Province and the Yichang Natural Science Research Program, positioning him as a key contributor to academic advancements in his field.


Research Interests:


Peng Geng’s primary research interests lie in the development of advanced nanomaterials with specific applications in tumor theranostics and anti-counterfeiting. His work focuses on the creation of multifunctional materials capable of addressing critical challenges in both medical and industrial sectors. One of his notable contributions is the development of single-component nano-fiber organogels, which have been engineered to offer color-tunable and “on-off” switchable afterglow, contributing significantly to multi-level anti-counterfeiting measures. Additionally, he is interested in exploring the potential of nanomaterials in other fields, including sensors and advanced drug delivery systems.


Research Skills:


Peng Geng possesses strong research skills in the development and synthesis of multifunctional materials, particularly nanomaterials, and the application of computational models for material prediction. His expertise includes advanced techniques in organic chemistry and materials engineering, particularly in the creation of organogels and phosphorescent materials. Peng is skilled in the use of AMDS (Advanced Molecular Design System) for predicting gelation tendencies of organic molecules, a tool that has proven invaluable in his research. His technical skills also extend to a deep understanding of nanomaterials’ properties, particularly their tunable optical characteristics, which are crucial for the applications in anti-counterfeiting and tumor theranostics.


Awards and Honors:


While Peng Geng’s career is still in its early stages, his innovative research has already gained recognition through various research grants and funded projects. He has secured support from prominent institutions, such as the Natural Science Foundation of Hubei Province and the Yichang Natural Science Research Program, reflecting the value and potential of his work. His contributions to the fields of nanomaterials and anti-counterfeiting have garnered attention in academic journals, such as Adv. Optical Mater., and his work is increasingly seen as having the potential for broad industrial and scientific applications.


Conclusion:


Peng Geng is an emerging researcher with significant promise in the field of materials science. His innovative work in multifunctional nanomaterials, particularly in tumor theranostics and anti-counterfeiting applications, is a testament to his creativity and scientific rigor. Although he is still building his academic career, his research has already made a strong impact, demonstrated by his published work and involvement in high-level projects. With continued focus on enhancing collaborations and increasing his industry engagement, Peng Geng’s future contributions to materials science are likely to be transformative. He is well-positioned for further academic success and is a strong candidate for the Research for Best Researcher Award.


Publication Top Notes


    

  1. Title: Non-conventional luminescent π-organogels with a rigid chemical structure

      

    • Authors: Chen, S., Luo, D., Geng, P., Lan, H., Xiao, S.
      • 

    • Citations: 1
      • 

    • Year: 2024
      • 

    

    2. 

  2. Title: From elementary to advanced: rational design of single component phosphorescence organogels for anti-counterfeiting applications

      

    • Authors: Lin, H., Shi, Y., Li, Y., Yan, J., Xiao, S.
      • 

    • Citations: 2
      • 

    • Year: 2024
      • 

    

    3. 

  3. Title: Amorphous MnO2 Lamellae Encapsulated Covalent Triazine Polymer-Derived Multi-Heteroatoms-Doped Carbon for ORR/OER Bifunctional Electrocatalysis

      

    • Authors: Huo, L., Lv, M., Li, M., Zheng, Y., Ye, L.
      • 

    • Citations: 43
      • 

    • Year: 2024
      • 

    

    4. 

  4. Title: Design and Synthesis of Nanoscale Zr-Porphyrin IX Framework for Synergistic Photodynamic and Sonodynamic Therapy of Tumors

      

    • Authors: Li, Y., Wang, W., Zhang, Y., Lan, H., Geng, P.
      • 

    • Citations: 2
      • 

    • Year: 2024
      • 

    

    5. 

  5. Title: One Stone, Three Birds: Design and Synthesis of “All-in-One” Nanoscale Mn-Porphyrin Coordination Polymers for Magnetic Resonance Imaging-Guided Synergistic Photodynamic-Sonodynamic Therapy

      

    • Authors: Geng, P., Li, Y., Macharia, D.K., Lan, H., Xiao, S.
      • 

    • Citations: 9
      • 

    • Year: 2024
      • 

    

    6. 

  6. Title: From biomaterials to biotherapy: cuttlefish ink with protoporphyrin IX nanoconjugates for synergistic sonodynamic-photothermal therapy

      

    • Authors: Li, Y., Huang, L., Li, X., Lan, H., Xiao, S.
      • 

    • Citations: 2
      • 

    • Year: 2024
      • 

    

    7. 

  7. Title: Rational Design of Low-Molecular-Weight Organogels with Ultralong Room-Temperature Phosphorescence for Security

      

    • Authors: Shi, Y., Lin, H., Geng, P., Luo, D., Xiao, S.
      • 

    • Citations: 0
      • 

    • Year: 2024
      • 

    

    8. 

  8. Title: Hollow copper sulfide loaded protoporphyrin for photothermal⁃sonodynamic therapy of cancer cells

      

    • Authors: Geng, P., Xiang, G., Zhang, W., Lan, H., Xiao, S.
      • 

    • Citations: 0
      • 

    • Year: 2024
      • 

    

    9. 

  9. Title: One-pot Synthesis of Room Temperature Phosphorescent Boron-difluoride Derivative for Printing

      

    • Authors: Zhang, X., Geng, P., Xiang, J., Mao, M., Xiao, S.
      • 

    • Citations: 1
      • 

    • Year: 2024
      • 

    

    10. 

  10. Title: Naphthalimide-based probe as an in situ indicator of photochemical reaction for self-reporting imidazole ring formation

      

    • Authors: Yang, B., Yan, X., Lan, H., Fang, Y., Xiao, S.
      • 

    • Citations: 1
      • 

    • Year: 2023
      • 

    

    11.