Xia Zhao | Materials Science | Best Researcher Award

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Best Researcher Award

Xia Zhao
Institute of Metal Research Chinese Academy of Sciences

Xia Zhao
Affiliation Institute of Metal Research Chinese Academy of Sciences
Country China
Scopus ID 56440332700
Documents 10
Citations 38
h-index 3
Subject Area Materials Science
Event Global Academic Awards

Xia Zhao of the Institute of Metal Research Chinese Academy of Sciences has established a research profile in materials science through scholarly publications and citation activity documented in international indexing databases.[1]

Abstract

This article presents an overview of the academic profile of Xia Zhao, a materials scientist affiliated with the Institute of Metal Research Chinese Academy of Sciences. The profile highlights scholarly output, citation metrics, research influence, and suitability for recognition through the Best Researcher Award. Bibliometric indicators from Scopus suggest an emerging contribution to materials science and associated interdisciplinary research activities.[1]

Keywords

Best Researcher Award; Materials Science; Bibliometrics; Scopus Author Profile; Academic Recognition; Research Impact; Scientific Publications.

Introduction

Academic awards play a significant role in acknowledging scientific achievement and promoting continued innovation. Recognition programs often evaluate researchers according to publication output, citation performance, originality of contributions, and broader societal influence. Materials science remains a strategically important field because of its applications in engineering, energy technologies, manufacturing, and advanced functional materials.[2]

Research Profile

Xia Zhao is associated with the Institute of Metal Research Chinese Academy of Sciences and has produced scholarly publications indexed by Scopus. Available bibliometric information indicates ten indexed documents, thirty-eight citations, and an h-index of three. These indicators demonstrate active participation in scientific communication and the dissemination of research findings within the materials science community.[1]

Research Contributions

The available publication record suggests contributions to materials science research, potentially involving the characterization, synthesis, and performance evaluation of advanced materials. Research in this field frequently contributes to the development of technologies that improve structural performance, sustainability, and industrial efficiency.[3]

  • Publication of peer-reviewed scientific articles.
  • Contribution to international scientific databases and indexing platforms.
  • Participation in advancing knowledge within materials science.

Publications

Scholarly publications remain the principal medium for communicating scientific findings. The indexed record of Xia Zhao demonstrates a continuing engagement with peer-reviewed dissemination and contributes to the measurable visibility of research outputs.[1]

  • Indexed documents in Scopus: 10.
  • Citations received: 38.
  • Measured h-index: 3.

Research Impact

Bibliometric indicators provide a quantitative perspective on scientific influence. Citation counts and h-index values are commonly employed to evaluate the visibility and academic reception of research outputs. Although metrics alone do not capture the entirety of scientific contribution, they offer useful benchmarks for assessing scholarly performance and research dissemination.[4]

Award Suitability

Based on available bibliometric data and institutional affiliation, Xia Zhao demonstrates characteristics that align with the objectives of the Best Researcher Award. The documented publication activity, citation record, and contribution to materials science research support consideration for academic recognition programs that acknowledge emerging and impactful scientific contributions.[1]

Conclusion

The academic profile of Xia Zhao reflects sustained engagement in materials science research and participation in the global scientific community through indexed publications and citations. Recognition through programs such as the Best Researcher Award contributes to the visibility of scholarly achievements and encourages continued scientific advancement and collaboration.[2]

References

  1. Elsevier. (n.d.). Scopus author details: Xia Zhao, Author ID 56440332700. Scopus. https://www.scopus.com/authid/detail.uri?authorId=56440332700
  2. National Academy of Engineering. (n.d.). The importance of materials science and engineering. https://www.nae.edu/
  3. Effect of Grain Boundary Carbide and Dynamic Recrystallization on the High-Temperature Plasticity of Columnar-Grain Solidified Microstructure in 690 Alloy. https://www.ams.org.cn/EN/10.11900/0412.1961.2024.00157
  4. Hirsch, J. E. (2005). An index to quantify an individual’s scientific research output. Proceedings of the National Academy of Sciences. https://doi.org/10.1073/pnas.0507655102

Haigen Gao | Design of Materials | Best Researcher Award

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Haigen Gao | Design of Materials | Best Researcher Award

Professor at Panzhihua University, China

šŸ”¬ Professor Haigen Gao is a renowned material scientist at Panzhihua University, serving as the chief scientist on a prestigious project funded by the National Natural Science Foundation of China . His research focuses on the structural design of advanced materials using the powerful strategy of density functional theory (DFT) šŸ§Ŗ, contributing significantly to theoretical and computational materials science. With a deep passion for innovation and discovery, Prof. Gaoā€™s work paves the way for next-generation materials with tailored properties āš™ļø, enhancing both academic understanding and practical applications in materials engineering šŸŒ.

Publication Profile

Scopus

Academic Background

Professor Haigen Gao is a distinguished expert in material science at Panzhihua University šŸ«. He currently serves as the chief scientist for a major research project funded by the National Natural Science Foundation of China , highlighting his leadership and academic excellence. His research focuses on the structural design of novel materials using density functional theory (DFT) šŸ§Ŗ, a cutting-edge computational method in material science. Through his innovative work, Professor Gao contributes to the development of next-generation materials with enhanced performance āš™ļø, playing a vital role in both scientific advancement and industrial application šŸŒ.

Professional Experience

Professor Haigen Gao is a prominent researcher in material science at Panzhihua University šŸ«. He plays a leading role as the chief scientist in a major project supported by the National Natural Science Foundation of China . His primary research interest lies in the structural design of advanced materials using the density functional theory (DFT) method šŸ§Ŗ, a powerful tool in theoretical and computational materials science. Through his groundbreaking work, Professor Gao is contributing to the discovery of high-performance materials āš™ļø, fostering scientific progress and enabling innovative applications across various technological fields šŸŒ.

Research Focus

Professor Haigen Gaoā€™s primary research interest lies in the structural design of new and innovative materials using the powerful strategy of density functional theory (DFT) šŸ§Ŗ. This computational method allows for precise analysis and prediction of material properties at the atomic level, enabling the creation of materials with tailored functionalities āš™ļø. His work contributes significantly to the advancement of material science by offering insights into the behavior and potential of new compounds šŸ”¬. Through DFT, Professor Gao is paving the way for breakthroughs in energy, electronics, and industrial applications šŸŒ, driving progress in both science and technology.

Publication Top Notes

šŸ“˜ A first-principles study on structural stability and magnetoelectric coupling of two-dimensional BaTiOā‚ƒ ultrathin film with Cr and Cu substituting Ti site

šŸ“… Year: 2024
šŸ“š Journal: APL Materials
šŸ“ˆ Citations: 109Ā 

First-principles study on influences of surface and thickness on magnetic and ferroelectric properties of quasi-two-dimensional BaTiO3 (001) ultrathin film doped with Ni at Ti site

First-Principles Study on Evolution of Magnetic Domain in Two-Dimensional BaTiO3 Ultrathin Film Doped with Co under Electric Field

A First-Principles Study on Structural Stability and Magnetoelectric Coupling of Two-Dimensional Batio3 Ultrathin Film with Cr and Cu Substituting Ti

 

Conclusion

Based on the available information, Professor Haigen Gao appears to be a strong candidate for the Best Researcher Award. As the chief scientist of a prestigious project funded by the National Natural Science Foundation of China , he demonstrates national-level research leadership. His expertise in density functional theory (DFT) šŸ§Ŗā€”a key method in computational materials scienceā€”positions him at the forefront of structural design of advanced materials āš™ļø. If supported by a solid record of high-impact publications, strong citation metrics, meaningful research outcomes, international collaborations, and recognition through awards or editorial roles šŸ…, Professor Gao would be a highly deserving recipient of this honor.

 

 

Theany To | Materials Science | Best Researcher Award

Published on by Global Academic Awards

Dr. Theany To | Materials Science | Best Researcher AwardĀ 

Postdoc fellow, at Univ Rennes, CNRS, IPR (Institut de Physique de Rennes) – UMR 6251, F-35000 Rennes, France.

Theany To is a dedicated researcher in glass mechanics, currently serving as a Marie-Curie BienvenĆ¼e Post-doc at the Institute of Physics of Rennes (IPR), France (2023ā€“2025). With a strong background in mechanical properties of glass, fracture toughness, and composite materials, Theany has made significant contributions to the field of materials science. He has collaborated with leading international researchers and industry partners, investigating the behavior of oxide glasses, silicate glasses, and novel glass-ceramic composites. Apart from research, he actively mentors students and participates in outreach activities, fostering scientific curiosity. Fluent in English, French, Danish, and Khmer, he enjoys engaging in football, volleyball, and scientific vulgarization. His enthusiasm for investigation and cooperation drives his passion for advancing the understanding of glass materials. šŸ†šŸ”¬

Professional Profile

Scopus

ORCID

Google Scholar

Education šŸŽ“

  • Ph.D. in Physics (Glass Mechanics), University of Rennes 1, France (2015ā€“2019)
    Thesis: “Mechanical properties of innovated glasses and composite glasses ā€“ Cracking, Fracture Toughness, and Strength”

    • Developed insights into glass fracture mechanisms and composite structures.

    • Won a regional public award in a science communication contest.

  • Masterā€™s Degree in Mechanical and Engineering Sciences, INSA Rennes, France (2014ā€“2015)

    • Ranked 2nd out of 38 students in theory and 3rd in applications.

    • Specialized in material behavior under stress and fracture mechanics.

  • Bachelorā€™s Degree in Civil Engineering, Institute of Technology of Cambodia (2009ā€“2014)

    • Focused on structural mechanics and tunnel construction.

    • Conducted research on cut-and-cover tunnel design.

Experience šŸ¢šŸ”¬

  • Marie-Curie BienvenĆ¼e Post-doc, IPR, France (2023ā€“2025)

    • Investigating mechanical properties of advanced glasses.

    • Supervising graduate students and collaborating on international projects.

  • Postdoctoral Researcher, IPGP, France (2022)

    • Explored mixed alkaline silicate glasses and mechanical behavior.

    • Published multiple high-impact journal articles.

  • Researcher, Aalborg University, Denmark (2019ā€“2022)

    • Supervised 4 Masterā€™s and multiple Ph.D. students.

    • Led projects on oxide glasses, crack-resistant materials, and phase separation.

  • Lecturer, University of Rennes 1, France (2017ā€“2018)

    • Taught Mechanical Behavior of Materials to Master’s students.

    • Conducted practical solid mechanics courses for undergraduates.

Research Interests šŸ”

  • Glass Fracture and Toughness: Investigating how glasses break under stress and methods to enhance durability.

  • Oxide Glasses & Composites: Exploring materials like lithium aluminoborate, galliumborate, and phosphosilicate glasses.

  • High-Pressure Glass Mechanics: Studying how glass properties change under extreme conditions.

  • Industrial Glass Applications: Collaborating with companies to develop stronger, more resilient glass materials.

  • Experimental and Theoretical Modeling: Combining experimental methods with computational simulations for advanced material analysis.

Awards & Honors šŸ†

  • Regional Public & Internet Award (2017) ā€“ šŸ… “My Thesis in 3 Minutes” (French Science Communication Contest).

  • Marie-Curie BienvenĆ¼e Postdoctoral Fellowship (2023ā€“2025) ā€“ šŸŒ Prestigious European postdoctoral research grant.

  • 2nd Place in Masterā€™s Program (2015) ā€“ šŸŽ“ Ranked among top students at INSA Rennes.

  • Multiple Research Grants & Collaboration Awards ā€“ šŸ“œ Recognition for contributions to international glass mechanics research.

Top Noted Publications šŸ“ššŸ”—

Below are some of Theany Toā€™s notable publications with links to full texts:

  • “Thermal and mechanical properties of Mgā€“Alā€“Siā€“Oā€“N glasses with up to 6.2 at.% nitrogen”
    Authors: Theany To, et al.
    Journal: Journal of the American Ceramic Society, 2025.
    Summary: This study investigates the thermal and mechanical properties of magnesium-aluminum-silicon oxynitride (Mgā€“Alā€“Siā€“Oā€“N) glasses containing up to 6.2 atomic percent nitrogen. The research aims to understand how nitrogen incorporation influences the structure and properties of these glasses. While the specific details of this study are not available in the provided sources, related research has shown that increasing aluminum content in similar glass systems leads to higher glass transition and crystallization temperatures, as well as increased viscosity. These changes are attributed to the progressive polymerization of the silicate network due to the glass-forming role of Alā‚‚Oā‚ƒ. ā€‹mostwiedzy.pl+1KFUPM+1KFUPM+1mostwiedzy.pl+1

  • “Fracture behavior of brittle particulate composites”
    Authors: T. Lacondemine, Theany To, et al.
    Journal: Materialia, 2024.
    Summary: This paper examines the fracture behavior of brittle matrix composites containing particulate reinforcements. Although specific details are not available, earlier studies have explored similar systems. For instance, research on glass matrices with nickel spheres investigated how the inclusion of metal particles affects fracture energy and crack propagation. The findings indicated that the presence of these particles can lead to local crack blunting, thereby increasing the material’s fracture energy. ā€‹SpringerLinkSpringerLinkSpringerLink

  • “Mechanical and Electrochemical Properties of Lithium Aluminoborate Glasses”
    Authors: Theany To, et al.
    Journal: Glass Europe, 2024.
    Summary: This research focuses on lithium aluminoborate glasses, analyzing their mechanical strength and electrochemical behavior. The study aims to elucidate the relationship between the glass composition and its performance in applications such as solid-state batteries.ā€‹

  • “Crystallization and mechanical properties of a barium titanosilicate glass”
    Authors: P. Mezeix, Theany To, et al.
    Journal: Journal of Materials Science, 2024.
    Summary: This paper investigates the crystallization behavior and mechanical properties of barium titanosilicate glass. The research explores how controlled crystallization impacts the material’s hardness and fracture toughness, providing insights into the development of glass-ceramic materials with tailored properties.ā€‹

  • “Comparing the effects of Gaā‚‚Oā‚ƒ and Alā‚‚Oā‚ƒ on sodium borate glasses”
    Authors: Theany To, et al.
    Journal: Journal of Non-Crystalline Solids, 2023.
    Summary: This study compares the influence of gallium oxide (Gaā‚‚Oā‚ƒ) and aluminum oxide (Alā‚‚Oā‚ƒ) additives on the structure and properties of sodium borate glasses. The research aims to determine how these oxides affect factors such as thermal stability, hardness, and chemical durability, contributing to the understanding of modifier effects in glass science.

Conclusion

Theany To is a highly accomplished researcher with outstanding contributions to glass mechanics, extensive academic mentorship, and a strong collaborative network. With further engagement in grant leadership and industrial applications, they would be an excellent candidate for a Best Researcher Award.

Saritha | Material science | Best Researcher Award

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Dr. D. Saritha | Material science | Best Researcher Award

Associate Professor at Chaitanya Bharathi Institute of Technology , India

Dr. D. Saritha is an Associate Professor at Chaitanya Bharathi Institute of Technology (CBIT), Hyderabad. With a Ph.D. in Chemistry from IIT Madras, she specializes in material science, nanomaterials, electrochemistry, and Li-ion batteries. She has over 17 years of research experience and 11.7 years in teaching. She has published 23 international journal articles and presented at 27 international conferences. As a committed academician, she holds multiple institutional responsibilities, including RD Coordinator and Departmental Research Committee Convenor. Dr. Saritha has received numerous accolades, including the Best Teacher Award for R&D at CBIT. Her research focuses on advanced materials for energy storage, 3D printing, and electrochemical applications.

Publication Profile

Google Scholar

Education šŸ“ššŸŽ“

Dr. D. Saritha holds a Ph.D. in Chemistry from IIT Madras, where she worked on advanced material science and energy storage applications. She completed her M.Sc. in Chemistry with First Class and earned a B.Sc. (MPC) with Distinction. Her strong academic foundation enabled her to excel in the National Entrance Test (GATE) 2006, securing admission to IIT Madras for her doctoral studies. Throughout her academic journey, she demonstrated a keen interest in electrochemistry and nanomaterials, laying the groundwork for her research in Li-ion batteries. Her education has provided her with extensive knowledge in material science, enabling her to contribute significantly to scientific advancements.

Experience šŸ«šŸ”¬

Dr. Saritha has 11.7 years of teaching and 17.7 years of research experience. She began her career as an Assistant Professor at KL University, Hyderabad, where she held multiple roles, including Institution-Industry Cell member and Women Protection Committee member. She joined CBIT as an Assistant Professor in 2019 and was promoted to Associate Professor in 2022. At CBIT, she serves as the RD Coordinator, Departmental Research Committee Convenor, and Engineering Chemistry Lab Coordinator. She mentors first-year students and contributes to curriculum development. With her expertise in nanomaterials and energy storage, she actively collaborates with researchers, guiding students in cutting-edge projects.

Awards and Honors šŸ†šŸŽ–ļø

Dr. Saritha has received several prestigious awards, including the Best Teacher Award for R&D at CBIT in 2022. She was honored with the Best Researcher Award by Science Father (NESIN 2021). She has won multiple Best Paper Awards at ICAM5 (NIT Warangal), CBIT Research Day 2019, and ICNAN 2016 (VIT University). She served as the Open House Coordinator at Shaastra-2009, showcasing IIT Madras’ research. She also excelled in GATE 2006 with a score of 374. These recognitions highlight her outstanding contributions to academia and research in material science and electrochemistry.

Research Focus šŸ”¬āš”

Dr. Sarithaā€™s research focuses on material science, energy storage, Li-ion batteries, electrochemistry, nanomaterials, and 3D printing. She explores innovative electrode materials for high-performance batteries and investigates electrochemical properties for sustainable energy solutions. Her work in nanomaterials aims to develop advanced functional materials for enhanced conductivity and stability. She actively contributes to interdisciplinary research, integrating 3D printing technology for material synthesis. Her studies have been published in top-tier journals, reflecting her expertise in energy storage and electrochemical applications. Her research aims to revolutionize battery technology, making energy storage more efficient and environmentally friendly. šŸš€

Publication Top Notes

šŸ“„ Electrochemical Li insertion studies on WNb12O33ā€”A shear ReO3 type structure ā€“ 71 citations (2010) šŸ”‹šŸ”¬
šŸ“„ Studies on electrochemical lithium insertion in isostructural titanium niobate and tantalate phases with shear ReO3 structure ā€“ 45 citations (2013) šŸ”‹āš›ļø
šŸ“„ 3D printed Lattice Structures: A Brief Review ā€“ 27 citations (2020) šŸ–ØļøšŸ§©
šŸ“„ A concise review on 4D printing technology ā€“ 26 citations (2021) ā³šŸ–Øļø
šŸ“„ Effect of fill pattern and printing speed on friction characteristics of FDM printed polylactic acid polymer ā€“ 15 citations (2021) āš™ļøšŸ“
šŸ“„ Electrochemical analysis of tungsten bronze-type phases, W9Nb8O47 and W7Nb4O31, synthesized by sol-gel method ā€“ 14 citations (2018) šŸ§ŖšŸ”‹
šŸ“„ A concise review on the removal of heavy metals from wastewater using adsorbents ā€“ 13 citations (2022) šŸŒŠā™»ļø
šŸ“„ Pt-and Pd-based intermetallic anode catalysts for direct ethanol fuel cell (DEFC): An overview ā€“ 10 citations (2022) āš”šŸ”¬
šŸ“„ A concise review on the advancement of anode materials for Li-ion batteries ā€“ 10 citations (2019) šŸ”‹šŸ”¬
šŸ“„ Nanomaterials and nanostructures in additive manufacturing: properties, applications, and technological challenges ā€“ 8 citations (2023) šŸ­āš™ļø
šŸ“„ Nanomaterialsā€Based Additive Manufacturing for Mass Production of Energy Storage Systems: 3D Printed Batteries and Supercapacitors ā€“ 8 citations (2023) šŸ”‹šŸ–Øļø
šŸ“„ Synthesis and electrochemical properties of Fe2WO6 ā€“ 6 citations (2021) āš”šŸ§Ŗ
šŸ“„ Current advancement on anode materials for Na-ion batteries ā€“ 4 citations (2022) šŸ”‹šŸ§Ŗ
šŸ“„ Solā€“Gel Synthesis and Electrochemical Studies on Mo3Nb2O14 ā€“ 4 citations (2018) šŸ§ŖšŸ”¬
šŸ“„ A concise review on cathode materials for Na-ion batteries ā€“ 3 citations (2023) šŸ”‹šŸ§Ŗ
šŸ“„ Effect of alternate fill pattern on mechanical properties of FDM printed PC-PBT alloy ā€“ 3 citations (2022) āš™ļøšŸ–Øļø

 

Zhihai Ke | Materials Science Award | Best Researcher Award

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Prof Dr. Zhihai Ke | Materials Science Award | Best Researcher Award

Prof Dr. Zhihai Ke, The Chinese University of Hong Kong, Shenzhen, China

 

Prof. Dr. Zhihai Ke is an Assistant Professor and the Director of the Undergraduate Chemistry Programme at The Chinese University of Hong Kong, Shenzhen. He earned his Ph.D. in Chemistry from The Chinese University of Hong Kong in 2012, following a B.Sc. in Applied Chemistry from Sun Yat-Sen University in 2008. He completed postdoctoral research at the National University of Singapore. Prof. Ke specializes in catalysis, organic synthesis, and material chemistry, contributing extensively to journals like ACS Catalysis, Angewandte Chemie, and Small. His work often explores metal-organic frameworks and single-atom catalysts. He holds an ORCID ID and is an active scholar on Google Scholar.

Publication profile

Orcid

Google scholar

Academic Qualifications šŸŽ“

Prof. Dr. Zhihai Ke’s academic journey began with a B.Sc. in Applied Chemistry from Sun Yat-Sen University (2004-2008), followed by a Ph.D. in Chemistry from The Chinese University of Hong Kong (2008-2012). He then advanced his career as a Postdoctoral Fellow in the Department of Chemistry at the National University of Singapore from October 2012 to July 2015. Subsequently, he served as a Research Assistant Professor at The Chinese University of Hong Kong until July 2020. Currently, he is the Director of the Undergraduate Chemistry Programme and an Assistant Professor at the School of Science and Engineering, The Chinese University of Hong Kong, Shenzhen, where he continues to contribute to the field of chemistry. šŸŒŸ

 

Awards and Recognition šŸ†

Prof. Dr. Zhihai Ke has received several prestigious awards throughout his career, highlighting his contributions to the field of chemistry. In 2018, he was honored with the Asian Core Program Lectureship Award (Asiaę øåæƒé”¹ē›®č®²åŗ§å„–), recognizing his excellence in academic presentations. In 2021, he was designated as a Shenzhen Overseas High-Caliber Personnel (Level C) and named a Presidential Young Scholar (ę ”é•æé’å¹“å­¦č€…), showcasing his impactful research. He further distinguished himself in 2023 with the Open Science Excellent Author Program award, followed by the 2023 Excellent Performance Grant, celebrating his outstanding achievements in academia and research. šŸŒŸ

 

Research Focus Areas šŸ”¬

Prof. Dr. Zhihai Ke’s research primarily revolves around catalysis and synthetic chemistry, focusing on innovative methodologies for asymmetric synthesis and reaction mechanisms. His notable contributions include the development of catalytic processes such as bromoetherification, bromocyclization, and enantioselective transformations using various Lewis acids and base catalysts. Additionally, his work on peptidomimetics and organogels showcases his interest in designing broad-spectrum inhibitors, particularly against viral proteases. Prof. Ke’s research also emphasizes the exploration of novel materials, including metallogels and nanostructures, highlighting a commitment to advancing green chemistry and sustainable practices. šŸŒ±āœØ

 

Publication Top Notes Ā 

  • Catalytic Asymmetric Bromoetherification and Desymmetrization of Olefinic 1,3-Diols with C2-Symmetric Sulfides – Cited by: 182 (2014) šŸ“„
  • Design, synthesis and crystallographic analysis of nitrile-based broad-spectrum peptidomimetic inhibitors for coronavirus 3C-like proteases – Cited by: 105 (2013) šŸ¦ 
  • A Platinum(II) Terpyridine Metallogel with an Lā€Valineā€Modified Alkynyl Ligand: Interplay of Ptā‹…ā‹…ā‹…Pt, Ļ€ā€“Ļ€ and Hydrogenā€Bonding Interactions – Cited by: 96 (2013) šŸ’Ž
  • Applications of selenonium cations as Lewis acids in organocatalytic reactions – Cited by: 90 (2018) āš—ļø
  • Conformational and supramolecular properties of main chain and cyclic click oligotriazoles and polytriazoles – Cited by: 87 (2010) šŸ“š
  • Lewis base catalyzed stereoā€and regioselective bromocyclization – Cited by: 80 (2017) šŸ”„
  • Electrochemical self-assembly of ZnO nanoporous structures – Cited by: 80 (2007) āš”
  • Desymmetrizing enantio-and diastereoselective selenoetherification through supramolecular catalysis – Cited by: 77 (2018) šŸ§Ŗ
  • Electrochemical synthesis of orientation-ordered ZnO nanorod bundles – Cited by: 61 (2007) šŸŒ
  • Lewis basic sulfide catalyzed electrophilic bromocyclization of cyclopropylmethyl amide – Cited by: 48 (2015) āš™ļø

Conclusion āœ…

Prof. Dr. Zhihai Ke is highly suitable for the Best Researcher Award. His achievements, leadership, and multiple prestigious awards mark him as an outstanding researcher in the field of chemistry.

Thomas Juska | Materials Science | Best Researcher Award

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Dr. Thomas Juska | Materials Science | Best Researcher Award

Dr. Thomas Juska, Applied Research Laboratory, Pennsylvania State University, United States

Dr. Thomas Juska is a renowned polymer scientist at ARL Penn State, with over 40 years of experience in polymer and composite materials. šŸŽ“ He earned his B.S. and Ph.D. in Polymer Science from Penn State and his M.S. from the University of Massachusetts. šŸ“š His research focuses on thermodynamics in polymer deformation, phase transitions, and resin development. āš›ļø He has pioneered theories like the stress-induced phase transition model and contributed to composite fabrication methods like integrated breathing. šŸ† Dr. Juska has developed numerous prototypes and continues to work in materials development during his semi-retirement. šŸŒŸ

 

Publication profile

Scopus

Education

Dr. Juska’s educational background includes a B.S. from Penn State University, an M.S. from the University of Massachusetts, and a Ph.D. in Polymer Science from Penn State. His extensive academic training laid the foundation for his long and impactful career in polymer science.

Work Experience

Dr. Juska has held significant positions. He began his career at NSWC – Carderock Division as a Materials Scientist and later worked at Northrop Grumman as a Research Scientist. Since 2003, he has been a Research Associate and department head at ARL Penn State, where he continues to lead functional materials development and prototype fabrication efforts.

Achievements in Polymer Science

Dr. Juska’s contributions to polymer science are impressive. He derived a generalized Hookeā€™s Law from thermodynamics, offering a new theoretical framework for understanding Poisson’s ratio and polymer behavior. His innovative stress-induced phase transition model of plasticity in polymers has had significant impact. Additionally, his work describing amorphous polymers as heterogeneous networks of nanoscale domains has led to groundbreaking advancements in time-temperature superposition and energy loss mechanisms in polymers.

Achievements in Polymer Engineering

In polymer engineering, Dr. Juska developed the integrated breathing method for composite fabrication, which revolutionized air removal techniques in composite materials. His expertise in polyurethane elastomers and his leadership in the development of multi-functional prototypes have been crucial to various engineering projects. His innovative methods have improved composite fabrication, making it more efficient and practical.

 

Research Interests

Dr. Thomas Juska has a deep interest in the thermodynamics of polymer deformation, focusing on how phase transitions play a crucial role in polymer behavior. His main engineering contributions are in the development of resins, processes, and prototypes tailored for specific applications. These interests highlight his focus on advancing polymer science, particularly in understanding polymer deformation and developing practical materials.

Conclusion

Dr. Thomas Juska is highly suitable for the Research for Best Researcher Award. His extensive contributions to polymer science, including theoretical advancements and practical engineering innovations, demonstrate his lasting impact on the field. His blend of scientific curiosity, engineering achievements, and leadership in material development make him a strong candidate for recognition.

 

Publication Top Notes

  • Composite Rotating Coupling Covers ā€“ 2015, CAMX 2015 – Composites and Advanced Materials ExpoĀ  šŸ“…šŸ“˜
  • Male Molding with Oven Vacuum Bag Prepreg ā€“ 2012, International SAMPE Technical Conference šŸ“…šŸ“˜
  • The New Infusion: Oven Vacuum Bag Prepreg Fabrication ā€“ 2009, International SAMPE Symposium and Exhibition ā€“ 8 citations šŸ“…šŸ“˜
  • Progress in Materials for Marine Composite Structures ā€“ 2004, International SAMPE Symposium and ExhibitionĀ  šŸ“…šŸ“˜
  • Progress in Materials for Marine Composite Structures ā€“ 2004, International SAMPE Technical ConferenceĀ  šŸ“…šŸ“˜
  • Durability Gap Analysis for Fiber-Reinforced Polymer Composites in Civil Infrastructure ā€“ 2003, Journal of Composites for Construction ā€“ 440 citations šŸ“…šŸ“˜
  • Pushing the Limits of VARTM ā€“ 1998, International SAMPE Symposium and Exhibition ā€“ 17 citations šŸ“…šŸ“˜

Zeev Zalevsky | Materials Science | Best Researcher Award

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Zeev Zalevsky | Materials Science | Best Researcher Award

Prof Zeev Zalevsky, Bar-Ilan University, Israel

Prof. Zeev Zalevsky: A Candidate for the Best Researcher Award.

Publication profile

google scholar

Education

Prof. Zeev Zalevsky has a solid educational background, with a B.Sc. in Electrical Engineering, Cum Laude, from Tel Aviv University (1989-1993). He pursued direct Ph.D. studies at the same university from 1993 to 1996, focusing on “Unconventional Optical Processors for Pattern Recognition and Signal Processing” under the guidance of Prof. David Mendlovic and Prof. Amos Hardy.

Professional Occupation

Prof. Zalevsky has extensive professional experience, starting as a teaching assistant at Tel Aviv University and later serving as an adjunct lecturer at various institutions, including Ariel Academic College and Weizmann Institute. He has held significant roles in both academia and industry, such as Project Officer in the Israeli Air Force’s R&D Department (1996-2001) and Founder and CTO of several technology companies. His contributions to electro-optics and photonics are particularly noteworthy, including his long tenure at Bar-Ilan University, where he founded and led the electro-optics track and the Nano-Photonics Center at BINA.

Scientific Achievements and Awards

Prof. Zalevsky’s work has earned him numerous awards and recognitions. He was instrumental in the development of the Kinect’s optical sensor, which garnered international acclaim and several prestigious awards, including the MacRobert Award for engineering innovation. His research has also been recognized by the National Institutes of Health (NIH), the European Commission, and other prominent organizations. Prof. Zalevsky has also mentored many successful researchers, further amplifying his impact on the scientific community.

Publications and Patents

Prof. Zalevsky’s prolific publication record includes influential works such as “The Fractional Fourier Transform” and “Spaceā€“Bandwidth Product of Optical Signals and Systems.” He holds multiple patents, including those for extended depth of focus imaging systems and three-dimensional sensing technologies. His research has significantly advanced the fields of optics, photonics, and biomedical engineering, with applications ranging from ophthalmic devices to remote sensing of biomedical parameters.

Conclusion

Prof. Zeev Zalevsky’s impressive academic background, extensive professional experience, and significant contributions to research make him a highly suitable candidate for the Best Researcher Award. His pioneering work in optics and photonics, coupled with his leadership in both academia and industry, demonstrates his exceptional qualifications for this honor.

Research focus

Zeev Zalevsky is a prominent researcher whose work primarily focuses on optical systems, particularly in areas such as superresolution imaging, 3D sensing, and extended depth of focus. His research includes developing innovative optical methods and systems, such as the Gerchberg-Saxton algorithm in the fractional Fourier domain and techniques for speckle pattern analysis. Zalevsky has made significant contributions to the fields of optical signal processing, synthetic aperture superresolution, and depth-varying light fields. His work is widely recognized, with numerous patents and publications reflecting his expertise in optics and photonics. šŸŒšŸ”¬šŸ“ø

Publication top notes

The fractional Fourier transform

Spaceā€“bandwidth product of optical signals and systems

Optical method and system for extended depth of focus

Depth-varying light fields for three dimensional sensing

Synthetic aperture superresolution with multiple off-axis holograms

Range mapping using speckle decorrelation

Gerchbergā€“Saxton algorithm applied in the fractional Fourier or the Fresnel domain

Fractional hilbert transform

Simultaneous remote extraction of multiple speech sources and heart beats from secondary speckles pattern

Three-dimensional sensing using speckle patterns

 

 

SUNG GYU PYO | Materials Science | Best Researcher Award

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SUNG GYU PYO | Materials Science | Best Researcher Award

Prof SUNG GYU PYO, Chung-Ang University, South Korea

Based on the detailed profile of Prof. Sung Gyu Pyo, he appears highly suitable for the “Best Researcher Award.

Publication profile

google scholar

Research Interests

Nano Microstructural Control: Prof. Pyoā€™s expertise in the nano microstructural control and evolution in various materials demonstrates his innovative approach in advanced materials science. Semiconductor Materials: His work in semiconductor materials and processing, including process integration and interconnect technology, is at the forefront of technological advancements in electronics. Advanced Technologies: Prof. Pyoā€™s involvement in cutting-edge technologies like Atomic Force Microscopy (AFM), HBM 3D integration, MEMS/sensors, and packaging processes highlights his comprehensive understanding and contributions to modern engineering.

Education and Professional Experience

Educational Background: With a robust educational foundation, including post-doctoral work at prestigious institutions like MIT and Kyoto University, Prof. Pyo is well-equipped with advanced knowledge and research skills. Teaching and Leadership: His roles as a Professor and former Dean at Chung-Ang University, along with his exchange professorship at the University of Texas, Austin, underline his leadership in academia and his commitment to education. Industry Contributions: Prof. Pyoā€™s extensive experience in the semiconductor industry, including leadership positions at SK Hynix and MagnaChip Semiconductor, showcases his ability to bridge the gap between academic research and industrial application.

Achievements

Publications and Patents: With approximately 100 publications and 200 patents, Prof. Pyo has made significant contributions to scientific literature and technological innovation. His work has been widely cited, reflecting the impact and relevance of his research. Editorial Roles: Serving on editorial boards of journals like Electronic Materials Letter and Advanced Science, Engineering and Medicine, he has contributed to shaping the field’s research directions.

Selected Publications

Optimizing Nanocomposite Structures: His publication on enhancing charge storage in nanocomposites is a testament to his innovative research in energy materials. Manufacturing Techniques: Several of his patents and publications focus on advanced manufacturing techniques for semiconductor devices, indicating his practical contributions to improving technology.

Recognition and Memberships

Whoā€™s Who Listings: Prof. Pyoā€™s inclusion in Whoā€™s Who in the World highlights his global recognition as a leading researcher. Professional Memberships: His involvement with the Korea Research Council for Industrial Science and Technology and the System IC Foundry Research Group reflects his influence in advancing industrial science.

Conclusion

Prof. Sung Gyu Pyoā€™s extensive research in materials science, significant contributions to semiconductor technology, and influential roles in academia and industry make him a strong candidate for the “Best Researcher Award.” His innovative work and leadership have not only advanced scientific understanding but have also driven technological progress, making him highly deserving of this recognition.

Research focus

Dr. SG Pyo’s research primarily focuses on semiconductor devices, specifically in the development and enhancement of image sensors and metal wiring. His notable contributions include advancements in backside illuminated sensors, fabrication of electrocatalysts for water splitting, and innovations in photoelectrodes for perovskite solar cells. His work spans across multiple areas including materials science, nanotechnology, and surface science, making significant strides in both theoretical and applied aspects of semiconductor technology. Dr. Pyo’s research has been published in high-impact journals and patented, showcasing his expertise in enhancing device performance and efficiency.

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Publication top notes

Atomic layer etching applications in nano-semiconductor device fabrication

Heater block having catalyst spray means

Zn2SnO4-Based Photoelectrodes for Organolead Halide Perovskite Solar Cells

Method of forming a metal wiring in a semiconductor device

Backside illuminated image sensor

Fabrication and evaluation of nickel cobalt alloy electrocatalysts for alkaline water splitting

Development of a production-ready, back-illuminated CMOS image sensor with small pixels

Microstructural analysis of multilayered titanium aluminide sheets fabricated by hot rolling and heat treatment

Enhanced charge storage by optimization of pore structure in nanocomposite between ordered mesoporous carbon and nanosized WO3āˆ’ x

Fabrication of multilayered titanium aluminide sheets by self-propagating high-temperature synthesis reaction using hot rolling and heat treatment

Adelina Hrituc | Materials Science | Best Researcher Award

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MrsĀ AdelinaĀ Hrituc |Ā Materials Science |Ā Ā Best Researcher Award

PhD Student industrial engineering atĀ Ā Gheorghe Asachi Technical University of Iasi,Ā Romania

Adelina Hrițuc, born on February 3, 1995, in Botoșani, Romania, is an accomplished professional in automotive engineering with extensive experience in mechanical design and project management. She holds a Bachelor’s and a Master’s degree in Industrial Engineering from the “Gheorghe Asachi” Technical University of Iaşi. Currently, Adelina is pursuing her PhD at the same institution, focusing on the 3D printing process of plastic materials.

Profile

Education and Training šŸ“š

  • PhD Student (Sept 2020 – Present)
    • Institution: ā€œGheorghe Asachiā€ Technical University of Iaşi
    • Faculty: Machine Manufacturing and Industrial Management
    • Domain: Industrial Engineering
    • Research Focus: Testing properties of plastic materials including bending, compression, and 3D printing processes.
    • Publications: 10+ papers presented in conferences, 50+ papers published in collaboration.
  • Masterā€™s Degree (Sept 2018 – July 2020)
    • Institution: ā€œGheorghe Asachiā€ Technical University of Iaşi
    • Faculty: Machine Manufacturing and Industrial Management
    • Domain: Industrial Engineering
  • Bachelorā€™s Degree (Sept 2014 – July 2018)
    • Institution: ā€œGheorghe Asachiā€ Technical University of Iaşi
    • Faculty: Machine Manufacturing and Industrial Management
    • Domain: Industrial Engineering
    • Thesis: Injection molding process for plastic parts
  • High School (Sept 2010 – June 2014)
    • Institution: ā€œMihai Eminescuā€ National College, Botoșani
    • Specialization: Social Sciences
    • Final Exam Grade: 9.68/10

Work Experience šŸ¢

  • ME Project Manager ā€“ ECU Platform Project (Jan 2023 – Present)
    • Company: Continental Automotive Romania, Iași
    • Responsibilities: Managing mechanical activities, from requirements to sourcing for components.
  • Mechanical Design Engineer (Feb 2019 – Jan 2023)
    • Company: Continental Automotive Romania, Iași
    • Responsibilities: ECU designer in areas of Safety and Motion.
  • Erasmus Student (July 2018 – Sept 2018)
    • Company: Abertax Company
    • Responsibilities: Placement module focusing on injection molding.

Honors and Awards:

  • Prize for PhD student performance
  • Prize for innovation and technological transfer
  • 2 private scholarships from industrial companies

Citations:

  • Citations: 163 citations since 2019
  • h-index: 7
  • i10-index: 3

Publications šŸ“„

  • Wire electrical discharge machiningā€”A review
    • Authors: L. Slătineanu, O. Dodun, M. Coteaţă, G. NagĆ®Å£, I.B. Băncescu, A. HriÅ£uc
    • Journal: Machines 8 (4), 69
    • Citations: 35
    • Year: 2020
  • Use of the Ishikawa diagram in the investigation of some industrial processes
    • Authors: C. Botezatu, I. Condrea, B. Oroian, A. HriÅ£uc, M. EÅ£cu, L. Slătineanu
    • Journal: IOP Conference Series: Materials Science and Engineering 682 (1), 012012
    • Citations: 24
    • Year: 2019
  • Thermal expansion of plastics used for 3D printing
    • Authors: B. Rădulescu, A.M. Mihalache, A. HriÅ£uc, M. Rădulescu, L. Slătineanu, …
    • Journal: Polymers 14 (15), 3061
    • Citations: 10
    • Year: 2022
  • Accuracy of polylactide parts made by 3D printing
    • Authors: A. HriÅ£uc, L. Slătineanu, A. Mihalache, O. Dodun, M. Coteaţă, G. NagĆ®Å£
    • Journal: Macromolecular Symposia 389 (1), 1900064
    • Citations: 8
    • Year: 2020
  • Mechanical behaviour of macroscopic interfaces for 3D printed multi-material samples
    • Authors: V. Ermolai, A. Sover, M.A. Boca, A. HriÅ£uc, L. Slătineanu, G. NagĆ®Å£, …
    • Journal: MATEC Web of Conferences 368, 01004
    • Citations: 7
    • Year: 2022
  • Influence of some microchanges generated by different processing methods on selected tribological characteristics
    • Authors: G. NagĆ®Å£, L. Slătineanu, O. Dodun, A.M. Mihalache, M.I. RĆ®panu, A. HriÅ£uc
    • Journal: Micromachines 13 (1), 29
    • Citations: 7
    • Year: 2021
  • Thermal insulation capacity of a 3D printed material
    • Authors: A. Mihalache, A. HriÅ£uc, M. Boca, B. Oroian, I. Condrea, C. Botezatu, …
    • Journal: Macromolecular Symposia 396 (1), 2000286
    • Citations: 7
    • Year: 2021
  • Mechanical behaviour of 3d printed PLA hollow spherical parts under axial compression
    • Authors: A. HriÅ£uc, A. Mihalache, M. Mares, M. Coteaţă, O. Dodun, G. NagĆ®Å£, …
    • Journal: Mater. Plast 57, 13-20
    • Citations: 5
    • Year: 2020

 

Wenyao Zhang | Materials Science | Young Scientist Award

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DrĀ WenyaoĀ Zhang |Ā Ā Materials Science |Ā Ā Young Scientist Award

professor atĀ Ā Nanjing university of science and technology,Ā China

Dr. Wenyao Zhang is a distinguished professor at the School of Chemistry and Chemical Engineering, Nanjing University of Science & Technology in Nanjing, China. He currently leads research in the field of aqueous Zn-ion batteries, focusing on the surface chemistry of Zn metal and the stabilization of metal clusters.

Publication profile

Google Scholar

Educational Background:

  • Ph.D. in Materials Science & Engineering (2012 – 2017): Nanjing University of Science and Technology, China.
  • Joint Ph.D. in Colloid Chemistry (2015 – 2017): Max Planck Institute of Colloids and Interfaces, Germany.
  • B.Eng. in Materials Chemistry (2008 – 2012): Nanjing University of Science and Technology, China.

Dr. Zhang’s research contributions have significantly advanced the understanding and application of nanomaterials in energy storage and conversion technologies.

Professional Experience:

  • 2022 – Present: Professor, Overseas High-Level Talent Recruitment Programs, Nanjing University of Science & Technology.
    • Research: Zn metal surface chemistry, aqueous Zn-ion batteries, stabilization of atomic/subnanometric metal clusters.
  • 2020 – 2022: Postdoctoral Researcher, Chemical & Materials Engineering, University of Alberta, Canada.
    • Co-Advisors: Prof. Ken Cadien, Prof. Zhi Li.
  • 2017 – 2020: Postdoctoral Researcher, Waterloo Institute for Nanotechnology, University of Waterloo, Canada.
    • Co-Advisors: Prof. Zhongwei Chen, Prof. Aiping Yu.

Academic Background:

Dr. Zhang earned his Ph.D. in Materials Science and Engineering from Nanjing University of Science and Technology in 2017, under the supervision of Prof. Xin Wang. He conducted joint Ph.D. research in Colloid Chemistry at the Max Planck Institute of Colloids and Interfaces in Germany, under Prof. Markus Antonietti. His research during this period focused on carbon-nitrogen materials for electrocatalysis and lithium-ion batteries, and carbon nitride-based materials for photoelectrochemical water splitting.

Materials Science Research Focus:

Dr. Wenyao Zhang’s research in materials science primarily revolves around energy storage and conversion technologies, with a significant emphasis on the following areas:

  1. Aqueous Zn-ion Batteries:
    • Zn Metal Surface Chemistry: Investigating the chemical interactions and surface modifications of zinc metal to enhance the performance and stability of aqueous Zn-ion batteries.
    • Stabilization of Metal Clusters: Developing molecular trapping strategies to stabilize atomic and subnanometric metal clusters, which are crucial for improving the efficiency and longevity of battery systems.
  2. Electrocatalysis:
    • Carbon-Nitrogen Materials: Designing novel carbon-nitrogen materials to serve as supports for electrocatalysts, enhancing their activity and durability for various electrochemical reactions.
  3. Photoelectrochemical Water Splitting:
    • Carbon Nitride-Based Materials: Creating high-performance carbon nitride-based materials to act as catalysts for photoelectrochemical water splitting, aiming to generate hydrogen efficiently using solar energy.
  4. Nanostructured Materials:
    • Growth of MnO2 on Carbon Nanotubes: Controlled synthesis of nanostructured manganese dioxide on carbon nanotubes to develop high-performance electrochemical capacitors.

Dr. Zhang’s innovative research integrates advanced material design and synthesis techniques to address critical challenges in energy storage and conversion, contributing to the development of sustainable and efficient energy solutions.

Citations:

  • Total Citations: 1,645
  • Citations Since 2019: 1,437
  • h-index: 21
  • i10-index: 28

Publication Top Notes

  • Ternary manganese ferrite/graphene/polyaniline nanostructure with enhanced electrochemical capacitance performance
    • P. Xiong, C. Hu, Y. Fan, W. Zhang, J. Zhu, X. Wang, Journal of Power Sources, 266, 384-392, 2014
    • Citations: 183
  • Palladium nanoparticles supported on graphitic carbon nitride-modified reduced graphene oxide as highly efficient catalysts for formic acid and methanol electrooxidation
    • W. Zhang, H. Huang, F. Li, K. Deng, X. Wang, Journal of Materials Chemistry A, 2 (44), 19084-19094, 2014
    • Citations: 169
  • Defectā€Enriched Nitrogen Dopedā€“Graphene Quantum Dots Engineered NiCo2S4 Nanoarray as Highā€Efficiency Bifunctional Catalyst for Flexible Znā€Air Battery
    • W. Liu, B. Ren, W. Zhang, M. Zhang, G. Li, M. Xiao, J. Zhu, A. Yu, Small, 15 (44), 1903610, 2019
    • Citations: 99
  • Merging singleā€atomā€dispersed iron and graphitic carbon nitride to a joint electronic system for highā€efficiency photocatalytic hydrogen evolution
    • W. Zhang, Q. Peng, L. Shi, Q. Yao, X. Wang, A. Yu, Z. Chen, Y. Fu, Small, 15 (50), 1905166, 2019
    • Citations: 90
  • Zn-free MOFs like MIL-53 (Al) and MIL-125 (Ti) for the preparation of defect-rich, ultrafine ZnO nanosheets with high photocatalytic performance
    • H. Xiao, W. Zhang, Q. Yao, L. Huang, L. Chen, B. Boury, Z. Chen, Applied Catalysis B: Environmental, 244, 719-731, 2019
    • Citations: 90
  • Controlled growth of nanostructured MnO2 on carbon nanotubes for high-performance electrochemical capacitors
    • H. Huang, W. Zhang, Y. Fu, X. Wang, Electrochimica Acta, 152, 480-488, 2015
    • Citations: 87
  • Self-repairing interphase reconstructed in each cycle for highly reversible aqueous zinc batteries
    • W. Zhang, M. Dong, K. Jiang, D. Yang, X. Tan, S. Zhai, R. Feng, N. Chen, Nature Communications, 13 (1), 5348, 2022
    • Citations: 84
  • A general approach for fabricating 3D MFe2O4 (M= Mn, Ni, Cu, Co)/graphitic carbon nitride covalently functionalized nitrogen-doped graphene nanocomposites as advanced anodes
    • W. Zhang, Y. Fu, W. Liu, L. Lim, X. Wang, A. Yu, Nano Energy, 57, 48-56, 2019
    • Citations: 82
  • A “trimurti” heterostructured hybrid with an intimate CoO/Co x P interface as a robust bifunctional air electrode for rechargeable Znā€“air batteries
    • Y. Niu, M. Xiao, J. Zhu, T. Zeng, J. Li, W. Zhang, D. Su, A. Yu, Z. Chen, Journal of Materials Chemistry A, 8 (18), 9177-9184, 2020
    • Citations: 81
  • One-pot synthesis of nickel-modified carbon nitride layers toward efficient photoelectrochemical cells
    • W. Zhang, J. Albero, L. Xi, K. M. Lange, H. Garcia, X. Wang, M. Shalom, ACS Applied Materials & Interfaces, 9 (38), 32667-32677, 2017
    • Citations: 67