Zhigang Chen | Chemistry | Best Researcher Award

Dr. Zhigang Chen | Chemistry | Best Researcher Award

Associate Professor from Chongqing University of Technology, China

Zhigang Chen is an accomplished researcher and Associate Professor at the School of Energy Catalysis, Chongqing University of Technology. With a strong academic background in physical chemistry and materials science, he has developed a research niche in single-atom catalysis and advanced in situ characterization techniques. Dr. Chen has demonstrated an exceptional ability to combine theoretical knowledge with experimental innovation, resulting in significant contributions to the field of heterogeneous catalysis. His research has been widely recognized and published in prestigious journals such as Nature Communications, PNAS, Nano Letters, ACS Catalysis, and Small, with many works authored as the first or corresponding author. Throughout his academic and professional career, Dr. Chen has emphasized the development of scalable, high-performance catalysts for electrochemical applications, addressing key challenges in sustainable energy. His work not only advances fundamental understanding of catalyst behavior but also offers practical implications for energy conversion and storage technologies. Driven by scientific curiosity and a strong commitment to impactful research, Dr. Chen continues to explore novel materials and techniques with a vision to revolutionize the field of catalysis through innovation, precision, and interdisciplinary collaboration.

Professional Profile

Education

Zhigang Chen holds a robust academic foundation in materials science and physical chemistry, having completed his education at some of China’s most prestigious institutions. He earned his Bachelor’s degree in Materials Science and Engineering from Chongqing University of Technology in 2014, laying the groundwork for his future specialization in catalysis and nanotechnology. He then pursued a Master’s degree in Physical Chemistry at the School of Sciences, Shanghai University, from 2014 to 2017. During this time, he honed his skills in chemical analysis, reaction mechanisms, and materials characterization, which became pivotal in his later research. For his doctoral studies, Dr. Chen attended the University of Science and Technology of China, one of the country’s leading research universities, where he earned his Ph.D. in Physical Chemistry in 2020. His doctoral work delved into the mechanisms and design of advanced catalytic systems, particularly at the nanoscale level. Following his Ph.D., he undertook a postdoctoral fellowship at the Suzhou Institute of Nano-Tech and Nano-Bionics, Chinese Academy of Sciences, specializing in surface catalysis. This rich academic trajectory has equipped him with a comprehensive understanding of both the theoretical and practical aspects of catalysis and advanced materials science.

Professional Experience

Zhigang Chen began his professional journey with a strong academic orientation, culminating in his current role as an Associate Professor at the School of Energy Catalysis, Chongqing University of Technology, where he has been serving since March 2023. Prior to this, he completed a postdoctoral fellowship at the Suzhou Institute of Nano-Tech and Nano-Bionics, Chinese Academy of Sciences, from 2020 to 2023. There, he focused on surface catalysis and further deepened his expertise in nanostructured materials and their electrochemical applications. His postdoctoral research also emphasized in situ spectroscopic techniques, which enabled a more profound understanding of catalyst behavior under real-time operational conditions. Dr. Chen’s academic appointments reflect a continuous trajectory of growth, supported by both fundamental scientific training and advanced experimental research. Throughout his professional career, he has maintained a strong publishing record in internationally renowned journals and has taken on increasing responsibilities as a lead and corresponding author. His current role includes supervising graduate students, developing cutting-edge research projects in energy catalysis, and contributing to the scientific community through collaborations and peer-reviewed publications. His professional pathway showcases both academic depth and research leadership in a rapidly evolving scientific field.

Research Interests

Zhigang Chen’s research interests lie at the intersection of material science, surface chemistry, and energy technology, with a primary focus on the development and scale-up of single-atom catalysts. These advanced materials offer high catalytic efficiency, selectivity, and stability—key parameters for energy-related applications such as hydrogen evolution, oxygen evolution, and carbon dioxide reduction. His work is grounded in physical chemistry and is highly interdisciplinary, integrating concepts from solid-state chemistry, surface science, and electrochemical engineering. Dr. Chen is particularly interested in the application of in situ spectroscopic techniques such as Raman spectroscopy, X-ray photoelectron spectroscopy (XPS), and X-ray absorption spectroscopy (XAS), which allow real-time investigation of catalytic behavior under operational conditions. His overarching research goal is to develop highly active and durable catalytic systems that contribute to sustainable and clean energy solutions. The combination of scalable material synthesis and in-depth mechanistic studies places his research at the frontier of nanocatalysis and materials innovation. Furthermore, he seeks to expand his work into industrially viable catalytic systems that can be deployed in real-world applications, thereby bridging the gap between fundamental research and applied technology.

Research Skills

Zhigang Chen possesses a diverse and advanced set of research skills that distinguish him in the field of catalysis and materials science. He is highly proficient in the synthesis and scale-up of single-atom catalysts, which involves complex procedures of atomic dispersion, substrate preparation, and post-treatment to achieve high catalytic performance. His work also extensively utilizes advanced characterization methods, particularly in situ spectroscopic techniques such as Raman spectroscopy, XPS (X-ray photoelectron spectroscopy), and XAS (X-ray absorption spectroscopy). These techniques enable him to monitor and analyze chemical reactions and structural changes of catalysts in real-time under operating conditions, providing critical insights into reaction mechanisms and material behavior. In addition to experimental techniques, Dr. Chen demonstrates strong skills in data interpretation, scientific writing, and critical review, as reflected in his numerous first-author publications in high-impact journals. His background in physical chemistry further enhances his ability to understand reaction kinetics, thermodynamics, and surface interactions at the atomic level. Moreover, he is adept at collaborating across disciplines, integrating materials science with electrochemistry and nanotechnology, which allows him to approach problems from multiple scientific perspectives. These research competencies position him as a leading innovator in catalyst development.

Awards and Honors

Zhigang Chen’s scholarly contributions have earned him recognition within the scientific community, as evidenced by his publication record in premier journals such as Nature Communications, PNAS, Nano Letters, Nano Energy, and ACS Catalysis. While specific awards or honors are not listed in his current profile, his recurring presence as the first or corresponding author in these top-tier journals is itself a mark of distinction. His research achievements reflect not only academic excellence but also innovation and leadership in the competitive field of catalysis and nanomaterials. Publishing in journals of this caliber requires stringent peer review and high-impact findings, indicating that Dr. Chen’s work consistently meets international standards of research excellence. Furthermore, his appointment as Associate Professor at a relatively early stage in his career signifies institutional recognition of his potential and expertise. He is also trusted with mentorship roles and leads significant research initiatives within his department. As his career progresses, it is expected that Dr. Chen will continue to receive formal awards and honors for his pioneering research, interdisciplinary collaborations, and contributions to advancing energy technologies.

Conclusion

Zhigang Chen stands out as a dynamic and innovative researcher whose work in single-atom catalysis and in situ spectroscopy has made a notable impact on the field of energy catalysis. His academic training, postdoctoral specialization, and current faculty role all reflect a focused and evolving career dedicated to advancing sustainable technologies through materials innovation. With a solid foundation in physical chemistry and materials science, Dr. Chen has developed advanced skills in catalyst synthesis and real-time analytical techniques, positioning him at the forefront of modern catalysis research. His extensive publication record in prestigious journals underscores his ability to produce high-quality, impactful research. Moreover, his current research aligns with global priorities such as clean energy and environmental sustainability, making his contributions both timely and socially relevant. As an emerging leader in his field, Dr. Chen has the potential to influence both academic research and industrial practices. With continued focus on interdisciplinary collaboration and application-driven research, he is well-poised to achieve greater scientific milestones. Overall, his profile makes him a strong contender for awards that recognize innovative and high-impact research.

 

 

Nadezhda Markova | Chemistry | Best Researcher Award

Assoc. Prof. Dr. Nadezhda Markova | Chemistry | Best Researcher Award

Theoretical chemistry at Institute of Organic Chemistry with Centre of Phytochemistry (IOCCP), Bulgarian 

Nadezhda Vasileva Markova is a distinguished Bulgarian scientist specializing in theoretical chemistry. She currently holds the position of Associate Professor at the Institute of Organic Chemistry with Centre of Phytochemistry, part of the Bulgarian Academy of Sciences. With a rich academic and professional background, she is renowned for her expertise in quantum chemical calculations, tautomerism, and the application of theoretical models to elucidate the structure and biological activity of plant-derived compounds. Throughout her career, she has demonstrated a strong commitment to advancing scientific knowledge through extensive research, mentoring, and collaboration with international scientific partners. Markova has co-authored 44 published and 2 accepted scientific articles, receiving over 600 citations. Her impactful research focuses on proton transfer reactions, solvent effects, and the molecular modeling of biologically active compounds. She is also recognized for her collaborative spirit and organizational skills in leading scientific projects. Her notable achievements include winning first place in the competition for high scientific achievements by the Union of Scientists in Bulgaria in 2011. Markova’s contributions continue to shape the field of theoretical and quantum chemistry, making her a leading figure in the Bulgarian scientific community.

Professional Profile

Education

Nadezhda Markova has a strong educational background in chemistry, with a focus on theoretical and organic chemistry. She earned her PhD in Theoretical Chemistry from the Bulgarian Academy of Sciences’ Institute of Organic Chemistry with Centre of Phytochemistry, where she honed her expertise in quantum chemical calculations and molecular modeling. Prior to her doctoral studies, she completed her Master of Science in Organic Chemistry at Shoumen University “Konstantin Preslavsky” between 1995 and 2000. Her master’s studies equipped her with a solid foundation in organic synthesis, analytical methods, and computational chemistry. Markova’s academic training emphasized both experimental and theoretical approaches, enabling her to develop skills in applying quantum chemical models to real-world molecular challenges. Her education has been instrumental in her ability to explore complex chemical processes, particularly in the areas of tautomerism, proton transfer reactions, and the interaction of biological molecules. With a robust academic foundation, she has continued to build on her expertise, contributing significantly to scientific research and publications in the field of theoretical chemistry.

Professional Experience

Nadezhda Markova’s professional career spans nearly two decades, during which she has held various academic and research positions at the Institute of Organic Chemistry with Centre of Phytochemistry, part of the Bulgarian Academy of Sciences. Since 2020, she has served as an Associate Professor, where she leads research projects, supervises doctoral students, and conducts cutting-edge studies in theoretical chemistry. From 2006 to 2020, she worked as an Assistant Professor, actively engaging in research focused on quantum chemical modeling, solvent effects, and the molecular structure of biologically active compounds. During her early career (2005–2006), she held the position of Chemist at the same institute, gaining hands-on experience in experimental and computational chemistry. Throughout her career, Markova has excelled in applying specialized software for quantum chemical calculations, such as GAMESS, GAUSSIAN, ChemCraft, and ChemOffice. Her professional journey highlights her dedication to advancing theoretical chemistry through meticulous research, scientific publications, and collaborative projects.

Research Interest

Nadezhda Markova’s research interests center around theoretical and quantum chemistry, with a particular focus on molecular modeling, proton transfer reactions, and solvent effects. She is deeply engaged in the study of tautomerism and its impact on the biological activity of various chemical compounds. Her work frequently explores the application of quantum chemical calculations in phytochemistry to elucidate the structure and biological action of plant-derived compounds. Additionally, Markova investigates the interactions of biologically significant molecules with nucleic acids, exploring their potential as fluorescent probes and antiviral agents. Her recent studies include the quantum chemical and metabolomic characterization of plant compounds against SARS-CoV-2 and Herpes Simplex Virus DNA polymerase, showcasing her contribution to medicinal chemistry. She is also interested in the effects of external electric fields on molecular tautomeric equilibrium, highlighting her innovative approach to molecular dynamics. Through her research, Markova aims to bridge the gap between computational models and experimental validation, offering valuable insights into molecular behavior and drug development.

Research Skills

Nadezhda Markova possesses an extensive set of research skills, particularly in the field of quantum chemical modeling and computational chemistry. She is highly proficient in utilizing specialized software for quantum chemical calculations, including GAMESS, GAUSSIAN, ChemCraft, and ChemOffice. Her expertise lies in conducting complex simulations to study proton transfer reactions, solvent effects, and tautomeric equilibria. Markova is skilled in applying hybrid statistical mechanics and quantum chemical models to investigate molecular interactions, making her a leader in the field of theoretical chemistry. Additionally, she is adept at using molecular docking and metabolomic profiling techniques to explore the inhibitory potential of natural compounds against viral enzymes. Her research skills extend to scientific writing, data analysis, and result interpretation, as evidenced by her numerous peer-reviewed publications. Furthermore, she excels in collaborating with multidisciplinary teams, organizing research projects, and mentoring doctoral students. Her technical proficiency and analytical capabilities have contributed to significant advancements in the study of molecular structure and biological activity.

Awards and Honors

Nadezhda Markova’s scientific excellence has been recognized through various awards and honors. In 2011, she achieved first place in the competition for high scientific achievements organized by the Union of Scientists in Bulgaria. This prestigious accolade highlighted her impactful contributions to the field of theoretical chemistry. Additionally, Markova’s extensive publication record—comprising 44 published and 2 accepted scientific articles—has received over 600 citations, underscoring the influence and recognition of her research within the scientific community. Her collaborative work with international research teams and participation in high-impact scientific projects further demonstrate her reputation as a leading figure in her field. Through her dedication to scientific innovation and knowledge dissemination, Markova has earned respect and recognition from peers and institutions alike. Her contributions continue to inspire and drive advancements in quantum chemical research and its applications in medicinal and organic chemistry.

Conclusion

Nadezhda Markova is a highly accomplished scientist whose expertise in theoretical chemistry has made a significant impact on the scientific community. Her academic background, extensive research experience, and proficiency in quantum chemical calculations have positioned her as a leading figure in her field. With a strong focus on molecular modeling, proton transfer reactions, and phytochemistry, she continues to push the boundaries of scientific knowledge. Markova’s dedication is reflected in her numerous publications, collaborations, and mentoring of young researchers. Her innovative work has earned her prestigious awards and widespread recognition, highlighting her role as a pioneer in quantum chemistry. As she continues to contribute to the advancement of scientific research, Markova’s legacy of excellence will undoubtedly inspire future generations of scientists and researchers.

Publications Top Notes

  1. Evaluation of chalcone derivatives for their role as antiparasitic and neuroprotectant in experimentally induced cerebral malaria mouse model

    • Authors: Shweta Sinha, Bikash Medhi, B. D. Radotra, Daniela Batovska, Nadezhda Markova, Rakesh
    • Year: 2023
  2. Potential of hydroxybenzoic acids from Graptopetalum paraguayense for inhibiting herpes simplex virus DNA polymerase – metabolome profiling, molecular docking, and quantum-chemical analysis

    • Authors: Nadezhda Todorova, Miroslav Rangelov, Ivayla Dincheva, Ilian Badjakov, Venelin Enchev, Nadezhda Markova
    • Year: 2022
  3. Potential of Hydroxybenzoic Acids From Graptopetalum paraguayense for Inhibiting Herpes Simplex Virus DNA Polymerase – Metabolome Profiling, Molecular Docking and Quantum-chemical Analysis

    • Authors: Nadezhda Hristova Todorova, Miroslav Angelov Rangelov, Ivayla Nedyalkova Dincheva, Ilian Kostadinov Badjakov, Venelin Georgiev Enchev, Nadezhda Vasileva Markova
    • Year: 2021
  4. Binding Expedient of 2‐carbamido‐1,3‐indandione to Nucleic Acids: Potential Fluorescent Probe

    • Authors: Nina Stoyanova, Nadezhda Markova, Ivan Angelov, Irena Philipova, Venelin Enchev
    • Year: 2021
  5. Ultrastructural alterations in Plasmodium falciparum induced by chalcone derivatives

    • Authors: Shweta Sinha, B.D. Radotra, Bikash Medhi, Daniela Batovska, Nadezhda Markova, Rakesh Sehgal
    • Year: 2020
  6. Anti-Herpes Simplex virus and antibacterial activities of Graptopetalum paraguayense E. Walther leaf extract: a pilot study

    • Authors: Margarita Zaharieva, Penka Genova-Kalоu, Ivayla Dincheva, Ilian Badjakov, Svetla Krumova, Venelin Enchev, Hristo Najdenski, Nadezhda Markova
    • Year: 2019
  7. Experimental and theoretical conformational studies of hydrazine derivatives bearing a chromene scaffold

    • Authors: Nadezhda V. Markova, Milen I. Rogojerov, Valentina T. Angelova, Nikolay G. Vassilev
    • Year: 2019
  8. In vitro anti-malarial efficacy of chalcones: Cytotoxicity profile, mechanism of action and their effect on erythrocytes

    • Authors: Shweta Sinha, Daniela I. Batovska, Bikash Medhi, B.D. Radotra, Anil Bhalla, Nadezhda Markova, Rakesh Sehgal
    • Year: 2019
  9. Synthesis, characterization, quantum-chemical calculations, and cytotoxic activity of 1,8-naphthalimide derivatives with non-protein amino acids

    • Authors: Ekaterina D. Naydenova, Milen N. Marinov, Georgi T. Momekov, Ralitsa Y. Prodanova, Nadezhda V. Markova, Yavor T. Voynikov, Nikolay M. Stoyanov
    • Year: 2019
  10. Tautomerism of Inosine in Water: Is It Possible?

  • Authors: Nadezhda Markova, Venelin Enchev
  • Year: 2019
  1. 2-Methylthio-imidazolins: a rare case of different tautomeric forms in solid state and in solution
  • Authors: Venelin Enchev, Nadezhda Markova, Milen Marinov, Nikolay Stoyanov, Milen Rogojerov, Aleksandr Ugrinov, Ireneusz Wawer, Dorota M. Pisklak
  • Year: 2017
  1. Green synthesis, structure and fluorescence spectra of new azacyanine dyes
  • Authors: Venelin Enchev, Nikolay Gadjev, Ivan Angelov, Stefka Minkovska, Atanas Kurutos, Nadezhda Markova, Todor Deligeorgiev
  • Year: 2017
  1. Hybrid MC/QC simulations of water-assisted proton transfer in nucleosides. Guanosine and its analog acyclovir
  • Authors: Nadezhda Markova, Ljupco Pejov, Nina Stoyanova, Venelin Enchev
  • Year: 2017
  1. Ultrasound-assisted green bromination of N-cinnamoyl amino acid amides – Structural characterization and antimicrobial evaluation
  • Authors: Borislava Stoykova, Mariya Chochkova, Gergana Ivanova, Nadezhda Markova, Venelin Enchev, Ivanka Tsvetkova, Hristo Najdenski, Miloslav Štícha, Tatiana Milkova
  • Year: 2017
  1. 2-Carbamido-1,3-indandione – A Fluorescent Molecular Probe and Sunscreen Candidate
  • Authors: Venelin Enchev, Ivan Angelov, Violeta Mantareva, Nadezhda Markova
  • Year: 2015
  1. A hybrid statistical mechanics – Quantum chemical model for proton transfer in 5-azauracil and 6-azauracil in water solution
  • Authors: Nadezhda Markova, Ljupco Pejov, Venelin Enchev
  • Year: 2015
  1. Synthesis of 3′,4′-Dihydro-2H,2′H,5H-spiro [imidazolidine-4,1′-naphthalene]-2,5-dione and its Derivatives
  • Authors: Milen Marinov, Plamena Marinova, Nikolay Stoyanov, Nadezhda Markova, Venelin Enchev
  • Year: 2014
  1. A model system with intramolecular hydrogen bonding: Effect of external electric field on the tautomeric conversion and electronic structures
  • Authors: Venelin Enchev, Vasil Monev, Nadezhda Markova, Milen Rogozherov, Snezhina Angelova, Maria Spassova
  • Year: 2013
  1. Excited state proton transfer in 3,6-bis(4,5-dihydroxyoxazo-2-yl)benzene-1, 2-diol
  • Authors: Venelin Enchev, Nadezhda Markova, Milena Stoyanova, Plamen Petrov, Milen Rogozherov, Natalia Kuchukova, Ivanka Timtcheva, Vasil Monev, Snezhina Angelova, Maria Spassova
  • Year: 2013
  1. Tautomeric equilibria of 5-fluorouracil anionic species in water
  • Authors: Nadezhda Markova, Venelin Enchev, Gergana Ivanova
  • Year: 2010
  1. Physicochemical characterization and in vitro behavior of daunorubicin-loaded poly(butylcyanoacrylate) nanoparticles
  • Authors: Maria Simeonova, Gergana Ivanova, Venelin Enchev, Nadezhda Markova, Milen Kamburov, Chavdar Petkov, Aidan Devery, Rod O’Connor, Declan Brougham
  • Year: 2009
  1. Ab initio and DFT study of the structure of metal ion complexes with N-benzalaniline-15-crown-5
  • Authors: Venelin Enchev, Snezhina Angelova, Nadezhda Markova, Ireneusz Wawer, Evgenia Stanoeva, Mariana Mitewa
  • Year: 2008
  1. Ab initio study of 2,4-substituted azolidines. II. Amino-imino tautomerism of 2-aminothiazolidine-4-one and 4-aminothiazolidine-2-one in water solution
  • Authors: Venelin Enchev, Nadezhda Markova, Snezhina Angelova
  • Year: 2005