Xueqing Xu | Materials Science | Best Researcher Award

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Assoc. Prof. Dr. Xueqing Xu | Materials Science | Best Researcher Award

Materials Science |  associate professor at Northwest Normal University , China

Xueqing Xu is a researcher and lecturer at the School of Chemistry and Chemical Engineering, Northwest Normal University. She completed her Ph.D. at Harbin Institute of Technology in 2021, where she gained extensive knowledge in the field of chemistry and material science. Xu’s primary focus is the design of multifunctional MOF (Metal-Organic Framework)-based nano/micromaterials with a specific emphasis on their applications in electromagnetic wave absorption/shielding and photocatalysis. These innovative materials have significant potential in various industries, including environmental protection and energy conservation. As a dedicated scholar, Xu continues to contribute to the scientific community through her ongoing research and publications in prestigious journals. Her work has helped pave the way for more sustainable and efficient solutions in the realm of material science.

Publication Profile

Scopus

Educational Background πŸŽ“πŸ“š

Xueqing Xu earned her Ph.D. in Chemistry from Harbin Institute of Technology in 2021. During her doctoral studies, she focused on the development and applications of Metal-Organic Frameworks (MOFs) for a variety of uses, including electromagnetic wave absorption and photocatalysis. Prior to her Ph.D., she completed a bachelor’s and master’s degree in Chemistry, gaining a strong foundation in material science. Her education has provided her with comprehensive knowledge in chemical engineering, materials chemistry, and nanotechnology, which has greatly contributed to her current research trajectory. At present, she is a lecturer at Northwest Normal University, where she imparts her expertise to undergraduate and graduate students while continuing her research on advanced functional materials.

 Experience πŸ”¬πŸ“–

After completing her Ph.D. at Harbin Institute of Technology, Xueqing Xu took on the role of lecturer at the School of Chemistry and Chemical Engineering, Northwest Normal University. As a lecturer, Xu combines her research pursuits with teaching responsibilities, fostering a dynamic learning environment for students. Her research experience includes investigating the synthesis and application of MOF-based nano/micromaterials, with a particular focus on their electromagnetic wave absorption and photocatalytic properties. She has collaborated with experts in her field to further her understanding of materials chemistry. Xu’s professional experience is also marked by her active participation in scientific conferences, where she shares her research findings. Her career reflects a strong commitment to advancing material science and making practical contributions to sustainability and environmental science.

Honors & Awards πŸ†πŸŽ“

Throughout her academic career, Xueqing Xu has earned several honors for her dedication to research and innovation in the field of chemistry. In addition to receiving her Ph.D. from Harbin Institute of Technology in 2021, she has published several influential papers in peer-reviewed journals, earning recognition within the scientific community. While she is still early in her academic career, her research in electromagnetic wave absorption and photocatalysis has already shown promise and led to collaborations with top-tier institutions. Xu’s groundbreaking work with multifunctional MOF-based nano/micromaterials has the potential to revolutionize various sectors, including environmental and energy industries. Her contributions to material science have set her on a trajectory for continued recognition, including future awards in materials research, environmental science, and nanotechnology.

Research Interests πŸ”πŸ“Š

Xueqing Xu’s research interests revolve around the design and application of multifunctional Metal-Organic Framework (MOF)-based nano/micromaterials. Specifically, her work focuses on developing materials for electromagnetic wave absorption and shielding, with potential applications in communications and environmental protection. Additionally, Xu is exploring the use of these materials in photocatalysis, aiming to address critical challenges in environmental remediation and energy conservation. Her research aims to design highly efficient, sustainable, and cost-effective materials for these applications. Xu’s ongoing work emphasizes the importance of functional material design for practical solutions in industrial settings. By understanding the interaction between electromagnetic waves and materials, her research could pave the way for better technologies in electromagnetic compatibility and pollution control. Her contributions are important not only to theoretical chemistry but also to the real-world applications of advanced materials.

PublicationsπŸ“š

Title: Boosting the photocatalytic benzylamine oxidation and Rhodamine B degradation using Z-scheme heterojunction of NiFe2O4/rGO/Bi2WO6

Authors: H. Xi, Hui; H. Wang, Hui; D. Liu, Dan; Z. Yang, Zhiwang; Z. Lei, Ziqiang

Citations: 0

Year: 2025

Title: Fabrication of Z-scheme heterojunction of UCN/BWO for selective photocatalytic benzylamine oxidation

Authors: H. Xi, Hui; X. Xu, Xueqing; Q. Yang, Qian; Z. Yang, Zhiwang; Z. Lei, Ziqiang

Citations: 1

Year: 2024

Title: Synthesis of Zn0.2Cd0.8S/MoS2/rGO photocatalyst for efficient solar-driven selective organic conversion

Authors: H. Xi, Hui; B. Lv, Bolin; Q. Yang, Qian; Z. Yang, Zhiwang; Z. Lei, Ziqiang

Citations: 1

Year: 2024

Conclusion :

Dr. Xueqing Xu’s exceptional contributions to the development of multifunctional materials for electromagnetic wave absorption and photocatalysis, her academic excellence, and her passion for research and teaching position her as a highly deserving nominee for the Best Researcher Award. Her work holds significant potential for advancing both academic knowledge and practical applications, particularly in energy and environmental fields, making her an outstanding choice for this prestigious recognition.

 

Bilge Imer | Materials Science | Best Researcher Award

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Bilge Imer | Materials Science | Best Researcher Award

Assoc. Prof. Dr Bilge Imer, METU, Turkey

Assoc. Prof. Dr. Bilge Imer is an accomplished scientist and entrepreneur with expertise in electronic materials, thin films, and coatings. She earned her Ph.D. in Electronic Materials from the University of California, Santa Barbara, and holds an M.A. in Business Economics. Dr. Imer is the founder and CEO of ATOMICOAT Inc., specializing in semiconductor thin film growth equipment. She is an Associate Professor at METU, where she has led impactful research and development projects. With several patents in materials science and a strong background in R&D, Dr. Imer has significantly contributed to industrial advancements. πŸŒπŸ“ˆπŸ”¬πŸ’‘

Publication Profile

google scholar

Education

Assoc. Prof. Dr. Bilge Imer holds a Ph.D. in Electronic Materials from the University of California, Santa Barbara (2000-2006), where she also earned an M.A. in Business Economics and completed a Technology Management Program, focusing on new product development and venture creation. She obtained her B.S. in Materials Science and Engineering from the University of Pittsburgh (1996-2000). Her interdisciplinary academic background combines expertise in material science, business economics, and technology management, which shapes her research and teaching in the fields of innovation and entrepreneurship. πŸŽ“πŸ’‘πŸ“šπŸ‘©β€πŸ«πŸ”¬

Experience

Assoc. Prof. Dr. Bilge Imer is the Founder & CEO of ATOMICOAT Inc., where she raised seed funding and developed innovative semiconductor thin film growth equipment. She is also an Associate Professor at METU, specializing in Metallurgical and Materials Engineering. Dr. Imer has led impactful research, including turbine blade materials for Istanbul’s AmbarlΔ± plant, and managed a 5 million EUR TUBITAK project. She established advanced research labs and advised corporate companies on coatings and alloys. Holding two patents, she has authored 18 papers with over 1000 citations. Additionally, she has coordinated industry partnerships and supported student entrepreneurship. πŸ’πŸ”¬πŸ’‘πŸŽ“

Research Impact

Dr. Imer’s work has made significant contributions to material science and advanced semiconductor technology. His influential publications in top-tier journals, such as Applied Physics Letters and Journal of Crystal Growth, showcase his expertise and innovative research. In addition to his published articles, Dr. Imer holds multiple patents, further solidifying his impact in the field. His dedication to advancing material science is evident in his continuous pursuit of groundbreaking discoveries, shaping the future of semiconductor technology. πŸŒŸπŸ”¬πŸ“šπŸ’‘πŸ‘¨β€πŸ”¬

Additional Recognition

With numerous technical skills, business development expertise, and a strong commitment to community involvement, he is a well-rounded, influential researcher and leader. His work extends beyond academia, with significant contributions to TV and radio, where he engages with broader audiences and fosters impactful discussions. His diverse background in both technical and business sectors allows him to bridge the gap between innovation and practical application, enhancing his research’s relevance. As a leader, he mentors emerging professionals and drives initiatives that create lasting societal impact. πŸ“‘πŸ“ˆπŸŽ™οΈπŸ’‘πŸ‘₯

Research Focus

Assoc. Prof. Dr. Bilge Imer’s research primarily focuses on the growth and microstructural evolution of gallium nitride (GaN) films, particularly non-polar and semi-polar III-Nitrides. She has contributed significantly to improving GaN quality through metalorganic chemical vapor deposition (MOCVD) and sidewall lateral epitaxial overgrowth (SLEO) techniques. Her work addresses defect reduction, polarization anisotropy, and the stability of m-plane GaN films. Dr. Imer’s research aims to enhance the performance and material properties of GaN for electronic and optoelectronic applications. Her work is instrumental in advancing the understanding of GaN growth on different substrates. πŸ”¬βœ¨πŸŒ±

Publication Top Notes

Growth of planar non-polar {1-1 0 0} m-plane gallium nitride with metalorganic chemical vapor deposition (MOCVD)

Microstructural evolution of a-plane GaN grown on a-plane SiC by metalorganic chemical vapor deposition

Improved quality (112 0) a-plane GaN with sidewall lateral epitaxial overgrowth

Defect reduction of non-polar and semi-polar III-Nitrides with sidewall lateral epitaxial overgrowth (SLEO)

Stability of (1100) m-plane GaN films grown by metalorganic chemical vapor deposition

Polarization anisotropy in GaN films for different nonpolar orientations studied by polarized photoreflectance spectroscopy

Polarized photoreflectance spectroscopy of strained A-plane GaN films on R-plane sapphire

 

Ovgu Yelgel | Computational Materials Science | Best Researcher Award

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Prof Dr Ovgu Yelgel | Computational Materials Science | Best Researcher Award

Prof Dr Ovgu Yelgel, Recep Tayyip Erdogan University , Turkey

Prof. Dr. Γ–vgΓΌ Yelgel is an accomplished researcher and academic specializing in materials science, particularly in thermoelectric materials. With over a decade of experience, Prof. Yelgel has significantly contributed to both theoretical and experimental research. They hold an Associate Professor position in Electrical-Electronics Engineering at RTE University, Turkey, and are currently a Visiting Researcher at the University of Manchester, UK. Known for their extensive publications and international collaborations, Prof. Yelgel’s work focuses on advancing renewable energy technologies and materials science.

Publication Profile

Scopus

Strengths for the Award

  1. Extensive Academic Experience:
    • Diverse Roles: Prof. Dr. Γ–vgΓΌ Yelgel has held a variety of academic positions, from Teaching Assistant to Associate Professor, with substantial research experience as a Visiting Researcher at renowned institutions in both the U.K. and Turkey. This varied background reflects a well-rounded and experienced researcher.
  2. Strong Research Focus:
    • Specialization in Thermoelectrics: Prof. Yelgel’s research centers on thermoelectric materials, a critical area in renewable energy and advanced materials science. This focus demonstrates both depth in a specialized field and relevance to current technological and environmental challenges.
  3. Impressive Publication Record:
    • High-Impact Journals and Books: The candidate has a notable publication record in high-impact journals and has contributed chapters to books, showcasing their expertise and the significance of their research. Publications in journals like Journal of Applied Physics and Journal of Solid State Chemistry highlight the quality and impact of their work.
  4. Relevant Projects:
    • Cutting-Edge Research: Projects such as the investigation of thermoelectric properties in nanowire structured materials and various theoretical studies on doped Mg2X systems indicate a strong commitment to advancing knowledge in their field. These projects align with contemporary research trends and practical applications.
  5. Technical Skills:
    • Broad Skill Set: Prof. Yelgel possesses a wide range of technical skills, including proficiency in programming languages (Python, C++, Fortran) and tools for scientific research (LaTeX, Mathematica, Unix/Linux). These skills are crucial for conducting advanced research and contributing to high-quality publications.
  6. International Research Experience:
    • Global Perspective: The candidate’s experience working in international research settings adds a valuable global perspective to their work, which is essential for impactful research and collaboration

Areas for Improvement

  1. Broader Impact and Outreach:
    • Public Engagement: While Prof. Yelgel’s research is highly specialized, there could be a greater emphasis on the broader impact of their work. Engaging in public science communication or industry partnerships could further enhance their profile.
  2. Interdisciplinary Research:
    • Expanding Research Horizons: Most research is concentrated on thermoelectrics. Exploring interdisciplinary projects or new areas within materials science might demonstrate adaptability and increase the breadth of their research impact.
  3. Leadership in Research:
    • Team Leadership: Highlighting experiences in leading research teams or larger collaborative projects could further strengthen their application. Evidence of mentoring junior researchers or managing significant research initiatives would be beneficial.
  4. Grant and Funding Achievements:
    • Secured Funding: Providing details on successfully secured research grants or funding would showcase the candidate’s ability to attract and manage research resources, a crucial aspect for high-impact research.

Education

Prof. Dr. Γ–vgΓΌ Yelgel earned her Bachelor’s degree in Physics from Gazi University, Ankara, Turkey, with an impressive GPA of 3.82/4.00 (2004-2008). She continued her academic journey at the University of Exeter, U.K., where she completed her Doctor of Philosophy in Physics (2010-2013). Her education laid a strong foundation in both theoretical and experimental aspects of physics, particularly focusing on materials science and nanotechnology. This solid educational background has significantly contributed to her research expertise and her ability to conduct high-impact studies in the field of thermoelectric materials and renewable energy resources.

Experience

Prof. Dr. Γ–vgΓΌ Yelgel’s academic career spans over a decade, marked by significant roles and contributions. She began as a Teaching Assistant at the University of Exeter (2011-2013) and progressed to an Assistant Professor at RTE University, Turkey (2014-2018). Her role as a Visiting Researcher at the University of Manchester (2017-2019) enhanced her international research experience. Currently, she serves as an Associate Professor in Electrical-Electronics Engineering at RTE University (2018-present) and continues her research collaboration as a Visiting Researcher at the University of Manchester (2023-present). Her diverse roles reflect a robust career in academia and research, demonstrating her leadership and expertise in materials science and nanotechnology.

Research Focus

Prof. Dr. Γ–vgΓΌ Yelgel’s research is primarily focused on the thermoelectric properties of materials, a field crucial for advancing renewable energy technologies. Her work explores the theoretical and experimental aspects of thermoelectric materials, including the investigation of nanowire structured materials and doped Mg2X systems. Her research aims to enhance the efficiency of thermoelectric materials, which are pivotal for converting waste heat into electrical energy. By studying the intrinsic atomic defects in heterostructures and evaluating the performance of various solid solutions, Prof. Yelgel contributes to the development of advanced materials with improved thermoelectric properties. Her work not only advances fundamental scientific knowledge but also has practical implications for sustainable energy solutions.

Publications

  • The Role of Intrinsic Atomic Defects in a Janus MoSSe/XN (X = Al, Ga) Heterostructure: A First Principles Study πŸ“„
  • Theoretical and Experimental Evaluation of Thermoelectric Properties of Single Filled Skutterudite Compounds πŸ“–
  • Thermoelectric Transport Behaviours of n-type Mg2 (Si,Sn,Ge) Quaternary Solid Solutions πŸ”¬
  • Structural and Electronic Properties of MoS2, WS2, and WS2/MoS2 Heterostructures Encapsulated with Hexagonal Boron Nitride Monolayers πŸ”
  • Theoretical Investigation of Thermoelectric Properties of Mg2X (X = Si, Ge) Based Bulk and Quantum Well Systems πŸ“Š
  • Theoretical Study of Thermoelectric Properties of p-type Mg2Si1βˆ’xSnx Solid Solutions Doped with Ga πŸ“š
  • Theoretical Study of Thermoelectric Properties of n-type Doped Mg2Si0.4Sn0.6 Solid Solutions πŸ”Ž
  • Thermoelectric Properties of Bi2Se3/Bi2Te3/Bi2Se3 and Sb2Te3/Bi2Te3/Sb2Te3 Quantum Well Systems πŸ“‰
  • Detailed Theoretical Investigation and Comparison of the Thermal Conductivities of n- and p-type Bi2Te3 Based Alloys πŸ§ͺ
  • Thermoelectric Properties of p-type (Bi2Te3 (562Te3)(1-x) Single Crystals Doped with 3wt% Te πŸ”¬
  • A Detailed Theoretical Study of the Thermal Conductivity of Bi2(Te0.85 Se0.15)3 Single Crystals πŸ“–
  • Thermoelectric Properties of n-type Bi2(Te0.85 Se0.15)3 Single Crystals Doped with CuBr and 3wt% Te πŸ“š

Conclusion

Prof. Dr. Γ–vgΓΌ Yelgel is a highly qualified candidate for the Best Researcher Award, with a strong track record in both academic positions and high-impact research. Their focus on thermoelectric materials is both timely and relevant, and their extensive publication record and international experience add significant value to their candidacy.To further enhance their application, Prof. Yelgel could benefit from a greater emphasis on public and industry engagement, exploring interdisciplinary research opportunities, and highlighting leadership roles in research projects and grant achievements. Overall, their expertise, dedication, and contributions to the field make them a compelling candidate for the award.