Tan Wang | Materials Science | Best Researcher Award

Dr. Tan Wang | Materials Science | Best Researcher Award

Assistant Researcher from Qingdao Institute of Bio Energy and Bioprocess Technology Chinese Academy of Sciences, China

Wang Tan is an assistant researcher at the Qingdao Institute of Bioenergy and Bioprocess Technology, Chinese Academy of Sciences. His expertise lies in organic photovoltaic materials and solar energy conversion. With a solid academic background in energy chemistry, he has contributed to high-impact research in polymer donor materials for solar cells. His work has been published in prestigious journals, highlighting his role in advancing renewable energy technologies. He has also secured funding for independent research projects, demonstrating his growing leadership in the field. His contributions extend beyond publications to patents, indicating a strong focus on practical applications.

Professional Profile

Education

Wang Tan obtained his Ph.D. in Energy Chemistry from Xiamen University (2015-2020), where he specialized in photovoltaic materials and device performance. He also earned a bachelor’s degree in Chemistry from Xiamen University (2011-2015), providing him with a strong foundation in material science. His postdoctoral research was conducted at Shanghai Jiao Tong University (2020-2022) and the Qingdao Institute of Bioenergy and Bioprocess Technology, CAS (2022-2024), where he further explored organic solar cells and material synthesis.

Professional Experience

Since January 2025, Wang Tan has been an assistant researcher at the Qingdao Institute of Bioenergy and Bioprocess Technology, working in the Key Laboratory of Solar Photovoltaic Conversion and Utilization. His postdoctoral experience includes research at Shanghai Jiao Tong University (2020-2022) and the Qingdao Institute of Bioenergy and Bioprocess Technology (2022-2024). Throughout his career, he has focused on the design and synthesis of novel organic materials for solar energy applications. His experience extends to leading research projects and collaborating with interdisciplinary teams on high-efficiency photovoltaic materials.

Research Interests

Wang Tan’s research interests primarily focus on organic photovoltaic materials, solar energy conversion, and high-efficiency polymer donor materials. He is particularly interested in developing novel organic semiconductors for next-generation solar cells. His work explores molecular design strategies for enhancing the power conversion efficiency and stability of organic solar cells. Additionally, he investigates charge transfer mechanisms and optoelectronic properties of new photovoltaic materials to improve device performance. His research aims to bridge the gap between fundamental material science and practical applications in renewable energy technologies.

Research Skills

Wang Tan has expertise in the design and synthesis of organic photovoltaic materials, including deep-energy-level donor materials. He is skilled in various characterization techniques such as steady-state and transient fluorescence spectroscopy, electrochemical analysis, and charge transfer studies. His proficiency extends to device fabrication and performance evaluation of organic solar cells. Additionally, he has experience in computational modeling to study molecular interactions and charge dynamics in photovoltaic materials. His multidisciplinary skill set enables him to contribute to both theoretical and experimental advancements in organic solar energy research.

Awards and Honors

Wang Tan has received funding from the Shandong Natural Science Foundation (2023-2026) and the Qingdao Postdoctoral Funding Program (2022-2024) for his work on high-performance organic photovoltaic materials. He has co-authored publications in top-tier journals such as Science Bulletin and Nano Energy, showcasing his research impact. He has also been granted patents for novel polymer materials and conductive nanoparticles in solar energy applications. His contributions to organic solar cell development have been recognized within the scientific community through conference presentations and invited talks.

Conclusion

Wang Tan is a dedicated researcher in the field of organic photovoltaic materials and solar energy conversion. His academic background, research experience, and technical skills position him as a valuable contributor to renewable energy advancements. While he has made significant strides in securing funding and publishing influential research, he has the potential to further establish himself as an independent research leader. Strengthening his role as a principal investigator and securing national-level grants could enhance his impact in the field. His combination of innovation, technical expertise, and research productivity makes him a promising candidate for future advancements in organic solar energy technologies.

Publications Top Notes

  • HOF-Enabled Synthesis of Porous PEDOT as an Improved Electrode Material for Supercapacitor
    Authors: Z. Zhong, Zihan; Q. Shao, Qingqing; B. Ni, Baoxin; A.K. Cheetham, Anthony Kevin; T. Wang, Tiesheng
    Year: 2025

Bardia Hejazi | Materials Science | Best Researcher Award

Dr. Bardia Hejazi | Materials Science | Best Researcher Award

Postdoc at Federal Institute for Materials Research and Testing, Germany

Bardia Hejazi is a dedicated physicist currently serving as a scientist at the Bundesanstalt für Materialforschung und -prüfung (BAM) in Berlin, Germany. With a rich background in fluid dynamics, particle interactions, and X-ray imaging, he specializes in failure analysis of 3D printed materials, particularly titanium components. His research journey has taken him from his undergraduate studies in Iran to prestigious institutions, including a postdoctoral role at the Max Planck Institute for Dynamics and Self-Organization. Here, he focused on the intersection of fluid dynamics and biology, particularly the flight dynamics of honeybees in varying environmental conditions. Hejazi’s multidisciplinary approach not only contributes to advancements in materials science but also provides insights into complex biological systems. His contributions to both academia and outreach highlight his commitment to scientific communication and mentorship, fostering a diverse scientific community. His active participation in research, teaching, and organizational roles showcases his ability to bridge theoretical knowledge with practical applications, positioning him as a promising candidate for recognition as a leading researcher in his field.

Professional Profile

Education

Bardia Hejazi completed his Ph.D. in Physics at Wesleyan University in January 2021, where he conducted research on particle-turbulence interactions under the guidance of Professor Greg A. Voth. His doctoral thesis significantly advanced the understanding of how particles behave in turbulent flows, contributing to the broader field of fluid dynamics. Prior to his Ph.D., Hejazi earned a Bachelor of Science in Physics from the Sharif University of Technology in Tehran, Iran, in June 2015. This strong educational foundation equipped him with essential theoretical knowledge and practical skills in experimental and computational physics. His education also includes a visiting research experience at Harvard University’s Center for Nanoscale Systems, where he developed particle manufacturing techniques using advanced 3D printing technologies. Throughout his academic journey, Hejazi has demonstrated a commitment to interdisciplinary research, leveraging his expertise in physics to explore applications in material science, biology, and environmental studies. His solid educational background is complemented by numerous research experiences, allowing him to contribute meaningfully to diverse scientific inquiries.

Professional Experience

Bardia Hejazi has cultivated a diverse professional experience, beginning as an undergraduate researcher at Sharif University of Technology and continuing through various prestigious research positions. Currently, he serves as a scientist at BAM in Berlin, where he focuses on the failure analysis of 3D printed titanium components, utilizing advanced X-ray computed tomography imaging techniques. Before this role, Hejazi completed a postdoctoral fellowship at the Max Planck Institute for Dynamics and Self-Organization, engaging in innovative studies on honeybee flight dynamics and the effects of atmospheric turbulence. His prior experiences include conducting field measurements of cloud dynamics and investigating the effectiveness of face masks in mitigating disease transmission. Additionally, Hejazi’s research at Wesleyan University involved tracking flexible particles in fluid flows and studying their dynamics, further enhancing his expertise in fluid dynamics and experimental physics. He has also contributed to undergraduate education as an instructor and teaching assistant, where he applied his knowledge to nurture the next generation of physicists. This combination of research and teaching roles underscores his commitment to advancing scientific knowledge and education.

Research Interests

Bardia Hejazi’s research interests span a range of interdisciplinary topics within physics, particularly focusing on fluid dynamics, material science, and biological systems. His current research involves utilizing X-ray imaging techniques for failure analysis of 3D printed titanium components, exploring the intricate relationships between material properties and structural integrity. Hejazi’s postdoctoral research at the Max Planck Institute allowed him to investigate honeybee flight dynamics in windy environments, revealing critical insights into how turbulence affects biological behavior. He is also interested in aerosol dynamics and their implications for public health, particularly in understanding how airborne particles contribute to disease transmission in indoor environments. Throughout his academic career, Hejazi has engaged in computational studies, developing algorithms to track particle deformations in fluid flows, and exploring the interactions of flexible particles with turbulence. His diverse research interests not only reflect his expertise in physics but also emphasize his commitment to addressing complex scientific challenges that span multiple disciplines. By bridging the gap between theoretical concepts and practical applications, Hejazi aims to contribute to advancements in both fundamental science and real-world issues.

Research Skills

Bardia Hejazi possesses a robust skill set that encompasses a wide array of research methodologies and technical proficiencies. His expertise in fluid dynamics and particle physics is complemented by practical skills in X-ray computed tomography and image analysis, enabling him to perform detailed investigations into material properties and behaviors. Hejazi has developed advanced coding skills for image analysis, quantifying crack features in 3D printed components, and facilitating in-situ experiments. His research experience is supported by a solid foundation in computational physics, allowing him to simulate complex systems and analyze dynamic behaviors of particles in various environments. Additionally, Hejazi has hands-on experience with particle manufacturing techniques, particularly using nano-scale 3D printing, enhancing his ability to innovate within experimental setups. His strong analytical capabilities are evidenced by his numerous publications in high-impact journals, showcasing his ability to communicate complex findings effectively. Furthermore, Hejazi has demonstrated leadership and mentorship skills through his roles in teaching and outreach, reflecting his commitment to fostering collaboration and diversity within the scientific community. His interdisciplinary skills position him as a valuable contributor to research initiatives across various domains.

Awards and Honors

Bardia Hejazi has been recognized for his academic and research excellence through several prestigious awards and honors throughout his career. Notably, he received the 1st Prize at the national scientific competition of the Iranian Society of Acoustics and Vibrations in December 2013, showcasing his early commitment to scientific inquiry and innovation. Hejazi was also selected to represent Iran as a member of the national team in the 22nd International Young Physicists Tournament held in Tianjin, China, in July 2009, reflecting his strong foundation in physics during his formative years. His educational achievements, including a Ph.D. from Wesleyan University, further underscore his dedication to advancing knowledge in the field of physics. Additionally, Hejazi has successfully secured funding from the Max Planck Society for high-speed camera purchases to support his research on fluid dynamics, indicating recognition of the significance of his work. These accolades not only highlight Hejazi’s individual achievements but also demonstrate his ongoing commitment to contributing to the scientific community and fostering the advancement of research in physics and its applications.

Conclusion

Bardia Hejazi demonstrates an impressive profile for the Best Researcher Award, characterized by a combination of innovative research, technical expertise, and leadership in the scientific community. His contributions have significant implications for both academic and practical applications, particularly in materials science and public health. By addressing the identified areas for improvement, he can further enhance his impact and visibility within the research community. Overall, Bardia is a strong candidate for the award, reflecting both current achievements and future potential.

Publications Top Notes

  • An upper bound on one-to-one exposure to infectious human respiratory particles
    • Authors: G. Bagheri, B. Thiede, B. Hejazi, O. Schlenczek, E. Bodenschatz
    • Year: 2021
    • Citations: 151
  • Lessons for preparedness and reasons for concern from the early COVID-19 epidemic in Iran
    • Authors: M. Ghafari, B. Hejazi, A. Karshenas, S. Dascalu, A. Kadvidar, M.A. Khosravi, …
    • Year: 2021
    • Citations: 35
  • Using deformable particles for single-particle measurements of velocity gradient tensors
    • Authors: B. Hejazi, M. Krellenstein, G.A. Voth
    • Year: 2019
    • Citations: 17
  • Emergent scar lines in chaotic advection of passive directors
    • Authors: B. Hejazi, B. Mehlig, G.A. Voth
    • Year: 2017
    • Citations: 9
  • On the risk of infection by infectious aerosols in large indoor spaces
    • Authors: B. Hejazi, O. Schlenczek, B. Thiede, G. Bagheri, E. Bodenschatz
    • Year: 2022
    • Citations: 4
  • Honeybees modify flight trajectories in turbulent wind
    • Authors: B. Hejazi, C. Küchler, G. Bagheri, E. Bodenschatz
    • Year: 2022
    • Citations: 3
  • Particle-turbulence interactions
    • Author: B. Hejazi
    • Year: 2021
    • Citations: 3
  • Crack characterization of fatigued additively manufactured Ti-6Al-4V using X-ray computed tomography and deep learning methods
    • Authors: B. Hejazi, A. Compart, T. Fritsch, R. Wagner, A. Weidner, H. Biermann, …
    • Year: 2024
  • Honeybee flight dynamics and pair separation in windy conditions near the hive entrance
    • Authors: B. Hejazi, H. Antigny, S. Huellstrunk, E. Bodenschatz
    • Year: 2023
  • Honeybee flight in windy conditions
    • Authors: B. Hejazi, C. Küchler, G. Bagheri, E. Bodenschatz
    • Year: 2022