Tag: Chemistry

Zi Liu, Chemistry, Best Researcher Award

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Assoc. Prof. Zi Liu: Teacher at Shangqiu Normal University, China

  • Name: Zi Liu

  • Title/Designation: Associate Professor (Assoc. Prof)

  • Current Role/Designation: Teacher

  • Organization/Institution: Shangqiu Normal University

  • Country: China

  • Subject Track: Chemistry

  • Award Categories: Best Researcher Award

Dr. Zi Liu is a dedicated researcher and Associate Professor at the College of Chemistry and Chemical Engineering, Shangqiu Normal University, Henan Province, China. Her academic journey and research have been rooted in the integration of chemistry, biology, and nanotechnology to address urgent biomedical and environmental challenges. With a focus on DNA-based biosensors and electroanalytical methods, Dr. Liu has established herself as a rising scholar in the field of analytical chemistry. She has published multiple peer-reviewed articles in top-tier journals, supervised undergraduate and graduate research, and leads national-level scientific projects aimed at developing next-generation diagnostic tools.

Online Profiles

Scopus Profile

  • Citations: 368 citations across 21 documents

  • h-index: 13

Education

Dr. Liu received her Ph.D. in Science from Zhengzhou University in July 2021, under the mentorship of Professor Baoxian Ye, a renowned expert in electrochemical sensing. Her doctoral research focused on the development of advanced biosensing strategies using DNA nanostructures. Prior to this, she obtained her Bachelor of Engineering degree from Shangqiu Normal University in 2015, laying a solid foundation in chemical analysis and bioengineering. Her academic training combined rigorous theoretical study with extensive laboratory work, equipping her with the skills needed for high-level research in analytical chemistry and biosensor technology.

Research Focus

Dr. Liu’s research focuses on the design and fabrication of electrochemical biosensors for the ultrasensitive detection of disease biomarkers and environmental toxins. She specializes in the integration of DNA nanomachines, DNAzymes, and signal amplification strategies to construct highly selective and responsive sensor platforms. Her work contributes to early disease diagnosis, particularly in areas such as viral infections, cancer detection, and Alzheimer’s disease, as well as real-time monitoring of antibiotic residues in environmental samples. Her interdisciplinary approach bridges molecular biology, nanotechnology, and electrochemistry to solve real-world problems.

Experience

Dr. Liu began her academic career as a Lecturer at Shangqiu Normal University in June 2021. Her dedication to teaching and research led to her promotion to Associate Professor in December 2024. She is involved in both undergraduate and postgraduate instruction, primarily teaching Analytical Chemistry. In addition to classroom teaching, Dr. Liu actively supervises student research projects and provides mentorship in experimental design and scientific writing. She is also engaged in collaborative research with institutions across China, contributing to the advancement of biosensing technology and analytical methods.

Research Timeline & Activities

Since 2021, Dr. Liu has secured and led several major research projects funded by national and provincial institutions. Her recent project under the National Natural Science Foundation of China focuses on developing an interlocked DNAzyme walker for simultaneous detection of dual antibiotics. Another ongoing project explores electrochemical sensing for antibiotic residues in wastewater using G4 DNAzyme nanospheres. Additionally, she is working on the application of DNA nanomachines in the early diagnosis of Alzheimer’s disease. Her research timeline reflects a steady trajectory of innovation, interdisciplinary collaboration, and application-driven outcomes in analytical and biosensor chemistry.

Awards & Honors

Dr. Liu has been recognized for her innovative research through multiple competitive grants and honors. She is the recipient of a Youth Project grant from the National Natural Science Foundation of China, which highlights her potential as a leading young scientist in her field. Her research has also been supported by the Henan Provincial Science and Technology Department and the Henan Department of Education. These awards acknowledge her contributions to developing practical and forward-thinking solutions in biosensing and disease detection, and they serve as a testament to the scientific and societal impact of her work.

Top Noted Publication

Among Dr. Liu’s publications, a standout contribution is her 2025 article titled: “Fuel-free DNA walker on tetrahedral scaffold: cascading electrochemical biosensor for ultrasensitive detection of hepatitis B virus gene,” published in the Microchemical Journal. This work introduced a novel DNA nanomachine-based biosensing platform that operates without the need for external fuel, enhancing both sensitivity and operational simplicity. The study received notable attention for its innovation in biosensor design and its potential application in rapid, point-of-care diagnostics. It exemplifies Dr. Liu’s commitment to advancing nucleic acid-based diagnostics through intelligent engineering.

1. Fuel-free DNA Walker on Tetrahedral Scaffold: Cascading Electrochemical Biosensor for Ultrasensitive Detection of Hepatitis B Virus Gene

Published in: Microchemical Journal, 2025
This article presents a groundbreaking DNA walker-based biosensor that operates without the need for external fuel. Utilizing a tetrahedral scaffold, this cascading electrochemical biosensor offers an ultra-sensitive method for detecting the hepatitis B virus gene, opening doors for advanced diagnostic techniques in molecular biology and virology.

2. Ozone-assisted Cataluminescence Sensor Based on Morphology-Controlled TiO2@Mg-MOF-74 Composite for Rapid Detection of N-hexane

Published in: Microchimica Acta, 2025
This study introduces an innovative cataluminescence sensor that employs a morphology-controlled TiO2@Mg-MOF-74 composite for the rapid detection of N-hexane. The ozone-assisted process enhances the sensitivity and speed of detection, making it a promising tool for environmental monitoring and industrial safety applications.

Strengths for the Best Researcher Award

  1. Innovative Biosensing Technology
    Dr. Liu has developed fuel-free DNA walkers and DNAzyme-based electrochemical biosensors, pushing the boundaries of molecular diagnostics. These innovations offer highly sensitive, rapid, and cost-effective detection methods, with direct implications for healthcare and environmental monitoring.

  2. Multidisciplinary Research Approach
    Her research bridges key scientific fields: electrochemistry, nanotechnology, and molecular biology. Dr. Liu’s ability to integrate DNA nanomachines, signal amplification techniques, and electrochemical sensing to solve real-world problems has led to breakthrough applications, especially in disease detection and environmental safety.

  3. High-Impact Publications
    Dr. Liu has authored several highly cited papers in prestigious journals such as Microchemical Journal and Microchimica Acta. Her works are recognized for advancing the scientific understanding of DNA-based sensors, which could pave the way for new diagnostic platforms in medical and environmental fields.

  4. Leadership in Research Projects
    Dr. Liu has secured and led multiple national-level research projects. These projects, funded by the National Natural Science Foundation of China and Henan Provincial Science and Technology Department, focus on cutting-edge applications, such as simultaneous detection of dual antibiotics and early Alzheimer’s disease diagnosis using DNA nanotechnology.

  5. Commitment to Education and Mentorship
    As an Associate Professor, Dr. Liu actively contributes to student development by supervising both undergraduate and graduate students in their research projects. Her role as a mentor in the laboratory fosters the next generation of scientists, making a lasting impact on the scientific community.

AROKIA ANTO JEFFERY ANTONY CRUSE, Chemistry, Best Innovator Award

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Asst. Prof. Arokia Anto Jeffery Antony Cruse: International research assistant professor at Yeungnam University, Korea (South)

  • Title/Designation: Asst. Prof

  • Name: AROKIA ANTO JEFFERY ANTONY CRUSE

  • Current Role/Designation: International Research Assistant Professor

  • Organization/Institution Details: Yeungnam University

  • Country: Korea (South)

  • Subject Track: Chemistry

  • Key Areas of Expertise: Electrocatalysis, fuel cells, water splitting

  • Award Categories: Best Innovator Award
    Submitted: Aug 20, 2025

Dr. Arokia Anto Jeffery Antony Cruse is a Research Assistant Professor at Yeungnam University, South Korea, specializing in the fields of materials chemistry and electrochemistry. With a Ph.D. in Chemistry from Bangalore University, India, he has established himself as a prominent researcher in energy materials, particularly in electrocatalysis for water splitting and fuel cell applications. His post-doctoral training at prestigious institutions such as Queen’s College (USA), Chungnam National University (South Korea), and Shenzhen University (China) has shaped his expertise in the design and optimization of advanced catalysts for energy conversion. Dr. Jeffery is actively engaged in cutting-edge research to develop sustainable energy solutions by focusing on the synthesis of novel nanomaterials, improving the performance of electrochemical devices, and addressing challenges in renewable energy storage and conversion.

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ORCID Profile

Education

Dr. Jeffery’s educational background laid the foundation for his successful career in materials chemistry. He completed his Ph.D. in Chemistry from Bangalore University in 2017, where his research focused on the synthesis and application of novel nanomaterials for photocatalysis and energy conversion processes. His doctoral work explored the potential of titanium-based nanosheets in environmental remediation, leading to breakthroughs in photocatalytic dye degradation. His education also included early research experiences in material synthesis and surface chemistry. Prior to his Ph.D., Dr. Jeffery completed his undergraduate and postgraduate studies with a strong focus on inorganic chemistry, building a solid foundation for his advanced research in energy materials and catalysis.

Research Focus

Dr. Jeffery’s research is primarily centered around the design, synthesis, and application of advanced electrocatalysts for energy conversion technologies, particularly in the areas of water splitting and fuel cells. He explores the structure-property relationships of catalysts, investigating how the electronic structure and surface properties influence catalytic performance. His work often focuses on transition metal alloys, single-atom catalysts, and 2D materials like molybdenum disulfide and tungsten disulfide. A key aspect of his research is developing bifunctional catalysts that can efficiently facilitate both hydrogen evolution and oxygen evolution reactions, crucial for water electrolysis. Dr. Jeffery is also investigating the integration of these materials in practical devices, aiming to improve their performance in real-world applications, such as in alkaline fuel cells and seawater electrolysis.

Experience

Dr. Jeffery has accumulated extensive experience in both research and academia, working across several top-tier institutions around the world. His current role as a Research Assistant Professor at Yeungnam University (South Korea) involves leading a research group focused on electrocatalyst design and sustainable energy technologies. Before this, Dr. Jeffery held multiple post-doctoral positions, including one at Queen’s College, City University of New York, where he focused on nanomaterials for energy storage. His time at Chungnam National University in South Korea (2019–2022) involved significant work on nanostructured catalysts for fuel cells and water splitting. Additionally, his post-doc role at Shenzhen University, China provided him with hands-on experience in the synthesis of novel catalysts for energy conversion technologies, including the development of single-atom catalysts and nanoalloys for efficient electrochemical processes.

Research Timeline & Activities

Dr. Jeffery’s research trajectory can be divided into several key phases. In the early part of his career, as a Ph.D. student at Bangalore University, he focused on photocatalysis and the development of novel transition metal-based catalysts. From 2017 to 2018, during his post-doctoral tenure at Shenzhen University, he worked on nanostructured electrocatalysts for water splitting. His later post-doctoral work at Chungnam National University (2019–2022) involved investigating fuel cell catalysts, while his time at Queen’s College (2022–2023) allowed him to delve into materials for energy storage and conversion. In 2023, he joined Yeungnam University, where his current research focuses on electrocatalysis, advanced nanomaterials, and energy conversion. Throughout these phases, he has authored numerous papers and contributed to groundbreaking work in the design of efficient electrocatalysts for both hydrogen and oxygen evolution reactions, and other sustainable energy technologies.

Awards & Honors

Throughout his career, Dr. Jeffery has been recognized for his exceptional research in materials science and electrochemistry. Some of his notable honors include the Best Paper Award at the IUMRS-ICYRAM conference (2016), recognizing his work on titanate nanosheets. He has also been awarded several research grants from institutions such as the National Research Foundation of Korea (NRF) and International Energy Agency (IEA) for his work in electrocatalysis and sustainable energy technologies. His excellence in research mentorship has been acknowledged by Yeungnam University, where he has helped shape the next generation of researchers in the field of materials chemistry. These recognitions highlight his sustained contributions to advancing clean energy solutions and energy conversion technologies.

Top Noted Publication

One of Dr. Jeffery’s most highly cited and impactful papers is titled “Regulating the electronic structure of CoMoO4 via La doping for efficient and durable electrochemical water splitting reactions,” published in the Journal of Materials Chemistry A in 2025. This work discusses the engineering of cobalt-molybdenum oxide (CoMoO4) electrocatalysts for improved water splitting efficiency and stability, particularly in alkaline electrolytes. The study presents a unique approach to dopant engineering, significantly enhancing the catalyst’s performance and longevity. This publication is a key contribution to the field of electrocatalysis, offering insights into material design principles that can be applied to other catalytic systems aimed at sustainable energy solutions.

1. Charge transfer dynamics and tuning of reorganization energy in graphene-encapsulated Co-based alloy catalysts for fuel cells

Nanoscale | 2025 | DOI: 10.1039/D5NR01548K
Contributors: A. Anto Jeffery, Sourabh S. Chougule, Monika Sharma, Yunjin Kim, Keonwoo Ko, Jiho Min, Jinseo Heo, Hyung-Kyu Lim, Namgee Jung
This study investigates the charge transfer dynamics and reorganization energy tuning in graphene-encapsulated Co-based alloy catalysts designed for alkaline fuel cells. The research focuses on how encapsulating the metal catalyst within a graphene shell influences the electrocatalytic activity and stability of the material, making it more efficient for fuel cell applications. The findings underscore the importance of electronic structure engineering to enhance both the rate of charge transfer and the reorganization energy, critical parameters that govern catalyst efficiency in fuel cells.

2. Impact of catalyst engineering on the durability performance of self-supported catalysts in anion exchange membrane water electrolyzers: recent advances and perspectives

Journal of Materials Chemistry A | 2025 | DOI: 10.1039/D5TA00208G
Contributors: Keerthana Pradeep, A. Anto Jeffery, Arun Prakash Sundaresan, R. Gunaseelan, Saravanan Rajendran, P. Esakki Karthik, Young-Ho Ahn, N. Clament Sagaya Selvam
This article explores the latest advances in catalyst engineering for self-supported electrodes used in anion exchange membrane water electrolyzers (AEMWE). The paper highlights how materials design and surface engineering contribute to enhancing the durability and long-term performance of these catalysts. The review discusses catalyst stability under real-world operating conditions and provides a comprehensive perspective on how electrode materials can be optimized for sustainable water splitting in AEMWEs.

3. Probing the catalytic heterogeneity of single FeCo and FeCoNi hydroxide nanoneedles by scanning electrochemical microscopy

Chemical Communications | 2025 | DOI: 10.1039/D4CC06469K
Contributors: A. Anto Jeffery, Tianyu Bo, Gaukhar Askarova, Michael V. Mirkin
This study uses scanning electrochemical microscopy (SECM) to investigate the catalytic heterogeneity of single FeCo and FeCoNi hydroxide nanoneedles, which are emerging as promising candidates for electrocatalytic water splitting. The paper offers a detailed analysis of how the local electrochemical properties of these nanoneedles vary across individual sites and how these variations can be correlated with their overall performance as bifunctional catalysts. This study enhances the understanding of the role of nanostructure and composition in catalytic performance.

4. Regulating the electronic structure of CoMoO4 via La doping for efficient and durable electrochemical water splitting reactions

Journal of Materials Chemistry A | 2025 | DOI: 10.1039/D4TA06599A
Contributors: Bharathi Arumugam, Erakulan E. Siddharthan, Pandian Mannu, Ranjit Thapa, Chung-Li Dong, Arokia Anto Jeffery, Seong-Cheol Kim
This paper presents the doping of CoMoO4 with lanthanum (La) to enhance its electrocatalytic activity and durability for water splitting reactions. The study demonstrates that La doping regulates the electronic structure of CoMoO4, resulting in improved performance in both hydrogen evolution reaction (HER) and oxygen evolution reaction (OER). The work provides valuable insights into how dopant engineering can be employed to tune the electronic properties and reactivity of complex oxides for sustainable energy applications.

5. Synergetic nanoarchitectonics with CuFe-LDH@NiOOH interface for high-efficiency bifunctional electrocatalyst toward accelerated electrocatalytic water splitting

International Journal of Hydrogen Energy | 2025 | DOI: 10.1016/j.ijhydene.2025.150994
Contributors: N. Ambikeswari, A. Anto Jeffery, Gabriela Sandoval-Hevia, Krishnamoorthy Shanmugaraj, N. Chidhambaram, N. Dineshbabu, Mangalaraja Ramalinga Viswanathan, Shanmuga Sundar Dhanabalan, Sathish-Kumar Kamaraj, Carolina Venegas Abarzúa et al.
This article reports the development of a bifunctional electrocatalyst consisting of a CuFe-Layered Double Hydroxide (LDH) core and a NiOOH shell for electrocatalytic water splitting. The unique nanoarchitectonics at the CuFe-LDH@NiOOH interface creates a synergetic effect, leading to high electrocatalytic efficiency and enhanced stability for both HER and OER. The catalyst architecture significantly accelerates the water splitting process, showing promising potential for hydrogen production via renewable energy systems.

Strength for the Best Innovator Award

1. Innovative Electrocatalyst Development

  • Dr. Jeffery’s pioneering work in designing and optimizing electrocatalysts, particularly for water splitting and fuel cells, has directly advanced sustainable energy solutions. His focus on bifunctional catalysts that facilitate both hydrogen and oxygen evolution reactions (HER and OER) demonstrates his ability to address critical challenges in energy conversion processes.

  • A standout example of his innovative approach is his work on CoMoO4 catalysts doped with lanthanum (La), which significantly enhances both the efficiency and durability of electrochemical reactions. This discovery contributes directly to the advancement of water electrolysis and hydrogen production, two key technologies for renewable energy.

2. Advanced Materials Design and Engineering

  • Dr. Jeffery’s research on nanostructured catalysts is groundbreaking. His study of graphene-encapsulated Co-based alloys for fuel cells reveals his skill in materials engineering to enhance the performance of energy conversion systems. By modifying the charge transfer dynamics and reorganization energy of these catalysts, he has increased their efficiency and longevity, making them more suitable for real-world applications.

  • His use of single-atom catalysts and transition metal alloys also showcases his cutting-edge work in the design of materials that are not only efficient but highly stable under challenging conditions.

3. Multidisciplinary Collaboration and Global Impact

  • Dr. Jeffery’s work spans multiple countries and institutions, enriching his research with diverse perspectives and advanced methodologies. His collaborations with top institutions such as Queen’s College, City University of New York, Chungnam National University, and Shenzhen University have strengthened his work and allowed for the integration of the best research practices from across the world.

  • He’s an active participant in global scientific discourse, consistently presenting his findings at international conferences, engaging with researchers worldwide, and contributing to the academic community. This openness to collaboration enhances his role as a leader in his field.

4. Commitment to Sustainability and Renewable Energy

  • Dr. Jeffery’s unwavering focus on sustainable energy technologies is one of his core strengths. His work in fuel cells, water splitting, and electrocatalysis aims to directly address the global need for clean, renewable energy solutions.

  • His research has significant implications for the commercialization of green hydrogen production, an essential step in the global transition to renewable energy sources. His ability to develop novel nanomaterials for efficient energy conversion is poised to play a crucial role in meeting global energy demands sustainably.

5. Proven Track Record of Excellence

  • Throughout his career, Dr. Jeffery has received numerous accolades, including the Best Paper Award at the IUMRS-ICYRAM conference and several research grants from prestigious organizations such as the National Research Foundation of Korea (NRF). These honors reflect his consistent excellence in research and innovation.

  • His top-cited publications and collaborations with other leading scientists highlight his established reputation in the field and his continuous impact on advancing scientific knowledge.

6. Mentorship and Research Leadership

  • As an Assistant Professor at Yeungnam University, Dr. Jeffery plays a pivotal role in shaping the next generation of researchers in materials chemistry and energy conversion technologies. His mentorship not only ensures the continuation of cutting-edge research but also fosters innovation in his students and colleagues.

Ravi Prakash, Chemistry, Best Innovator Award

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Dr. Ravi Prakash: Postdoctoral Researcher at Indian Institute of Technology (BHU) Varanasi, India

Ravi Prakash is a dedicated postdoctoral researcher at the Indian Institute of Technology (BHU), Varanasi, with specialized expertise in polymer nanocomposites, graphene oxide functionalization, and quantum dot-based solar energy devices. His work aims to develop advanced hybrid nanostructures for flexible, printable, and high-efficiency energy harvesting systems. Skilled in material synthesis, chemical modifications, and multi-scale characterization techniques, Ravi has a strong record of high-impact publications and collaborative research bridging academia and industry.

Online Profiles

Google Scholar Profile

Citation Metrics

Since 2020, Ravi Prakash has garnered a total of 244 citations, with 242 citations recorded in this period alone. His research impact is reflected in an h-index of 8 and an i10-index of 7, indicating a consistent track record of influential publications that contribute to the fields of polymer nanocomposites and solar energy devices.

Education

He completed his Ph.D. in Materials Science at IIT (BHU), Varanasi, in October 2022, focusing on the development of functionalized polyurethane gel electrolytes for quantum dot-sensitized solar cells. Prior to this, Ravi earned his Master of Science from Mahatma Gandhi Kashi Vidyapith University and Bachelor of Science from Veer Bahadur Singh Purvanchal University, building a solid foundation in chemistry and material sciences.

Research Focus

Ravi’s research focuses on the design, synthesis, and functionalization of polymers, quantum dots, and carbon-based nanomaterials for energy applications. He specializes in fabricating dye-sensitized and quantum dot solar cells, optimizing thin-film device performance, and analyzing electrochemical, thermal, and mechanical properties of novel polymer composites and hybrid materials aimed at sustainable energy solutions.

Experience

He has served as a Postdoctoral Research Associate since late 2022, working on thermoplastic prepreg technologies for aerospace applications under a DRDO-IIT(BHU) joint initiative. His doctoral research involved the development of high-performance gel electrolytes for solar cells, and he has extensive experience in material synthesis, device fabrication, and operating advanced characterization instruments such as rheometers, electrochemical workstations, and spectrometers.

Research Timeline

From 2016 to 2022, Ravi conducted his Ph.D. research at IIT (BHU), culminating in a thesis on polyurethane gel electrolytes for solar cells. Post-Ph.D., he joined as a postdoctoral researcher focusing on processing techniques for PEEK-based thermoplastic composites under defense research projects. Throughout his career, he has progressively expanded his expertise in polymers, nanomaterials, and composite processing technologies.

Awards & Honors

Ravi has achieved notable academic distinctions including securing the 16th rank nationally in the CSIR-UGC NET exam for Chemical Sciences (2015) and qualifying GATE Chemistry (2016). He was awarded Junior and Senior Research Fellowships at IIT (BHU) and won the Best Poster Award at the BioHeal 2023 International Conference. He is also a life member of the Asian Polymer Association and the Materials Research Society of India, reflecting his commitment to the scientific community.

Recent Publication

Among his recent publications is the article “Slurry processed Carbon Fiber/PEEK prepreg Enhanced Mechanical and Viscoelastic properties,” accepted in ChemistrySelect (July 2025). This work highlights his contribution to enhancing the mechanical strength and durability of thermoplastic composites for structural and aerospace applications, demonstrating practical implications of his research in advanced materials engineering.

  • High Strength Glass Fiber / PEEK Prepreg using Slurry Processing for Structural Application
    Ravi Prakash, D.S. Bag, P. Maiti, Journal of Materials Science: Composites (In press), 2025.
    This study presents advanced slurry-processed glass fiber/PEEK composites with improved mechanical and structural properties for industrial applications.

  • Slurry-Processed Carbon Fiber / PEEK Prepregs with Enhanced Mechanical and Viscoelastic Properties
    Ravi Prakash, D.S. Bag, S.K. Mishra, P. Maiti, ChemistrySelect (In press), 2025.
    This work focuses on optimizing carbon fiber reinforced PEEK composites via slurry processing to enhance their mechanical performance.

  • Alterations in the Epidermis and Mucus Viscosity of the Carp, Cirrhinus mrigala, Experimentally Infected with Edwardsiella tarda
    A.K.M. Jyoti Singh, Usha Kumari, Ravi Prakash, Pralay Maiti, Swati Mittal, Microbial Pathogenesis, 207, 107883, 2025.
    A biological study investigating changes in fish epidermal properties due to bacterial infection.

  • Fluid Distribution Equipment, Sanitary, Heating, Ventilation and Air-Conditioning Equipment, Solid Fuel
    N. Kant, S. Singh, A.K. Singh, P. Singh, D. Sharma, Ravi Prakash, et al. GOV.UK Patent (Granted), 6437742, 2025.
    Patent granted on innovative HVAC and fluid distribution technologies.

  • A Method for Preparing a Thermoplastic Polyether Ether Ketone / Carbon Fibre Prepreg
    P.M. Ravi Prakash, Dibyendu Sekhar Bag, Indian Patent Application (Filed), 2024.
    Patent application describing a novel process for fabricating high-performance PEEK/carbon fiber prepregs.

  • Biodegradable Gel Formulation and a Method of Preparation Thereof
    Avishek Mallick Choudhury, Subham Sekhar Mandal, Ravi Prakash, Amita Santra, et al., Indian Patent Application (Filed), 2022.
    Patent application on environmentally friendly biodegradable gel materials for diverse applications.

Strength for the Best Innovator Award:

  1. Pioneering Research in Advanced Materials:
    Developed innovative slurry-processing techniques for high-strength Glass Fiber and Carbon Fiber reinforced PEEK composites, significantly improving mechanical and viscoelastic properties for structural and aerospace applications.

  2. Cutting-Edge Energy Solutions:
    Created functionalized polyurethane gel electrolytes and quantum dot-sensitized solar cells that demonstrate enhanced efficiency, contributing to the advancement of sustainable, flexible, and printable energy devices.

  3. Strong Patent Portfolio:
    Filed multiple patents, including novel methods for preparing thermoplastic PEEK/carbon fiber prepregs and biodegradable gel formulations, showcasing a commitment to translating research into practical, market-ready technologies.

  4. Interdisciplinary Impact:
    Demonstrated versatility by contributing to diverse fields ranging from polymer nanocomposites and solar energy to biomedical hydrogels and microbial pathogenesis, indicating broad innovative potential.

  5. Collaborative and Funded Research Excellence:
    Led DRDO-funded projects and actively participated in drafting competitive research proposals, reflecting not only innovative ideas but also the ability to secure funding and implement impactful research at a national level.

Jayashree Samantray, Chemistry,

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Dr. Jayashree Samantray: Assistant Professor at C V RAMAN POLYTECHNIC, India

Jayashree Samantray is an accomplished researcher and educator with a robust academic and professional background in chemistry, specifically focusing on extractive metallurgy and process development. With over five years of research experience at the CSIR-Institute of Minerals and Materials Technology (IMMT), Bhubaneswar, Jayashree has successfully developed and optimized sustainable metallurgical processes for the extraction of valuable metals from low-grade ores and industrial waste. Her work spans various fields, including hydrometallurgical and pyrometallurgical techniques, with notable contributions to the recovery of potassium, aluminium, and other metals like copper, nickel, and cobalt. In addition to her research, Jayashree has taught chemistry and environmental science at various academic levels, blending theoretical knowledge with practical applications. With six published papers in reputed science journals, her work continues to inspire advancements in sustainable metallurgical practices.

Online Profiles

ORCID Profile

Scopus Profile

Dr. Jayashree Samantray is an established researcher with a significant academic presence. Currently affiliated with C.V. Raman Polytechnic, Bhubaneswar, India, she has contributed extensively to the field of extractive metallurgy and sustainable process development. With an h-index of 4 and 95 citations across 78 documents, her work has garnered recognition in the scientific community. Her academic contributions can be found on Scopus (ID: 57208422586) and her ORCID profile (0000-0003-2816-0412), which provides further insight into her growing body of research and its impact on the field of chemistry and materials science.

Education

  • Ph.D. in Chemistry (2017-2022), Sambalpur University, India
    Thesis: “Production of Fertilizer Grade Potassium Compounds from Lean Grade Ores”
    Advisors: Prof. Ajaya Kumar Behera, Dr. Barsha Dash.
    The focus of her doctoral research was on developing more efficient and sustainable methods for the extraction of potassium and other valuable elements from silicate minerals like feldspar and nepheline syenite.

  • M.Sc. in Chemistry (2011-2013), Utkal University, India,
    Specialized in inorganic and industrial chemistry with an emphasis on analytical techniques and process design.

  • B.Sc. in Chemistry (Hons) (2008-2011), Ramadevi Women’s College, India, 
    Gained a strong foundation in general chemistry, organic chemistry, and physical chemistry.

  • 12th Grade (2006-2008), Stewart School, India, 
    Focused on science subjects with chemistry as a major area of study.

  • 10th Grade (2006), Stewart School, India,
    A solid academic background with top performances in science subjects.

Research Focus

Jayashree’s research interests lie in the field of sustainable metallurgy, with a specific focus on developing eco-friendly and economically viable processes for the recovery of valuable metals from ores, industrial waste, and by-products. Her primary areas of focus include the extraction of potassium compounds from feldspar and nepheline syenite, the recovery of aluminium from fly ash and other waste residues, and the leaching of base metals such as copper, nickel, and cobalt from polymetallic nodules and scrap alloys. Additionally, her work extends to the application of thiosulfate leaching methods for gold recovery, as well as the recovery of rare earth elements from industrial waste residues. Jayashree aims to bridge the gap between industrial practices and environmental sustainability, ensuring that mining and metallurgy contribute less to environmental degradation.

Experience

  • Assistant Professor of Chemistry, C.V. Raman Polytechnic, Bhubaneswar (Jan 2023–Present)
    Teaching core chemistry courses to engineering and diploma students, including Environmental Chemistry, Physical Chemistry, and Analytical Chemistry. In addition to theory, she also takes practical classes in chemical analysis and laboratory work.

  • Assistant Professor of Chemistry, Gandhi Institute of Excellent Technocrats, Bhubaneswar (Jan 2022–Jan 2023)
    Conducted lectures in Chemistry and Environmental Science, specializing in the application of chemical principles in industrial processes and environmental conservation.

  • Project Fellow, CSIR-IMMT, Bhubaneswar (May 2014–Mar 2017)
    Conducted research in the extraction of potassium fertilizers from lean-grade ores and designed efficient processes for improving the extraction of potassium and aluminum from feldspar and nepheline syenite.

  • Project Assistant, CSIR-IMMT, Bhubaneswar (2017-2020)
    Worked on process development for the recovery of valuable metals from polymetallic nodules and scrap alloys, and collaborated with senior scientists to develop innovative hydrometallurgical techniques for metal extraction.

  • Lecturer of Chemistry, Newton College of Science and Technology, Bhubaneswar (Apr 2013–Apr 2014)
    Taught undergraduate chemistry courses, with a focus on general chemistry and organic chemistry, and mentored students on various scientific projects.

Research Timeline

  • 2018–2020: Project Assistant at CSIR-IMMT under the project “Extractive Metallurgy of Polymetallic Nodules”. Led experiments focused on recovering copper, nickel, and other base metals from polymetallic nodule samples.

  • 2017–2018: Project Assistant for “Recovery of Alumina from Fly Ash”, focusing on process optimization and scale-up of alumina recovery from fly ash using a combination of hydrometallurgical and pyrometallurgical methods.

  • 2014–2017: Project Fellow in “Potassic Fertilizers Technology”, a key project for the sustainable extraction of potassium fertilizers from low-grade ores like feldspar and nepheline syenite.

  • 2022–Present: Ph.D. research work focusing on the sustainable production of fertilizer-grade potassium compounds from lean-grade ores, with particular emphasis on minimizing the environmental impact of the extraction process.

Awards & Honors

  • GATE 2013: Scored an 81.26 percentile, showcasing strong problem-solving skills in the area of chemical engineering.

  • Best Research Paper Award: For the paper “Sustainable Process for the Extraction of Potassium from Feldspar” at the Indian Institute of Metals conference.

  • CSIR Research Fellowship: Awarded a prestigious fellowship for research in hydrometallurgy and extractive metallurgy (2014-2017).

  • Outstanding Teaching Award: Recognized for exceptional teaching contributions at C.V. Raman Polytechnic, Bhubaneswar.
    Her academic achievements have been recognized through multiple awards, reflecting her dedication to both teaching and research.

Recent Publications

  1. Samantray, J., Anand, A. (2025). Bio-Waste Application for Potassium Extraction from Nepheline Syenite. Mining, Metallurgy & Exploration. DOI: 10.1007/s42461-025-01329-7.
    This paper explores the innovative use of bio-waste in the sustainable extraction of potassium from nepheline syenite, contributing to environmental sustainability in mining practices.

  2. Samantray, J., Anand, A., Dash, B., Ghosh, M. K., Behera, A. K. (2022). Silicate Minerals – Potential Source of Potash – A Review. Minerals Engineering, 179, 107463. DOI: 10.1016/j.mineng.2022.107463.
    This review discusses the potential of silicate minerals, such as nepheline syenite, as an alternative and sustainable source for potash production, aiming to reduce reliance on conventional mining.

  3. Samantray, J., Anand, A., Dash, B., Ghosh, M. K., Behera, A. K. (2020). Sustainable Process for the Extraction of Potassium from Feldspar Using Eggshell Powder. ACS Omega, 5 (25), 14990–14998. DOI: 10.1021/acsomega.0c00586.
    This article highlights an eco-friendly method using eggshell powder for potassium extraction from feldspar, providing an environmentally benign alternative to traditional extraction techniques.

  4. Anand, A., Singh, R., Samantray, J., Ghosh, M. K., Sanjay, K. (2020). Leaching of Rare Earth Elements from the Residue Generated by the Lixiviation of Waste Phosphor with Sulphuric Acid. Transactions of the Indian Institute of Metals, 73 (4), 1081-1091. DOI: 10.1007/s12666-020-01939-3.
    This paper presents a sustainable method for the recovery of rare earth elements from industrial waste residues, promoting the circular economy in metallurgy.

  5. Samantray, J., Anand, A., Dash, B., Ghosh, M. K., Behera, A. K. (2019). Nepheline Syenite—An Alternative Source for Potassium and Aluminium. In Rare Metal Technology 2019 (pp. 145–159). Springer, Cham. DOI: 10.1007/978-3-030-05740-4_15.
    This book chapter delves into the potential of nepheline syenite as a dual-source for both potassium and aluminium, offering an alternative to traditional potash mining.

  6. Samantray, J., Anand, A., Dash, B., Ghosh, M. K., Behera, A. K. (2019). Production of Potassium Chloride from K-Feldspar Through Roast–Leach–Solvent Extraction Route. Transactions of the Indian Institute of Metals, 72 (10), 2613–2622. DOI: 10.1007/s12666-019-01730-z.
    This research outlines a novel and efficient method for extracting potassium chloride from K-feldspar, providing a more sustainable alternative to traditional methods of potash extraction.

Strengths for the

1. Sustainability in Metallurgical Processes

Dr. Samantray’s work in sustainable extractive metallurgy, particularly in the development of eco-friendly processes for recovering valuable metals from low-grade ores, industrial waste, and by-products, stands out. Her focus on minimizing environmental impact—such as using bio-waste and eggshell powder for extraction—demonstrates her dedication to advancing green technologies in metallurgy. This commitment aligns perfectly with global goals of sustainable mining and material recovery.

2. Innovative Techniques for Metal Extraction

She has developed and optimized various novel techniques in hydrometallurgy and pyrometallurgy, such as the use of thiosulfate leaching for gold recovery and extracting rare earth elements from waste residues. These innovative methods offer significant improvements in efficiency, cost-effectiveness, and environmental impact when compared to conventional methods. Her research bridges the gap between traditional industrial practices and modern, more sustainable approaches.

3. Interdisciplinary Expertise

Dr. Samantray’s expertise blends chemistry, environmental science, and industrial applications. Her academic and practical experience allows her to approach complex challenges from multiple angles—whether it’s extracting potassium from feldspar and nepheline syenite or optimizing alumina recovery from fly ash. This interdisciplinary perspective enables her to generate solutions that are not only scientifically sound but also applicable in real-world industrial contexts.

4. Academic Contributions & Mentorship

Dr. Samantray’s role as an educator and mentor further strengthens her qualifications. By teaching subjects like Environmental Chemistry and Physical Chemistry, she directly influences the next generation of engineers and scientists. Her recognition with the “Outstanding Teaching Award” at C.V. Raman Polytechnic highlights her ability to effectively communicate complex concepts and inspire students to think critically about chemistry’s role in environmental sustainability.

5. Research Excellence & Publications

With six published papers in reputed journals, including notable contributions to ACS Omega and Minerals Engineering, Dr. Samantray has demonstrated her ability to produce high-quality, impactful research. Her work on alternative sources for potassium and the efficient recovery of metals from polymetallic nodules has garnered recognition in the scientific community, as reflected in her growing citation count and h-index. This research not only advances the field but also provides viable solutions to some of the most pressing challenges in modern metallurgy.

BHUPENDRA SINGH, Chemistry,

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Asst. Prof Bhupendra Pratap Singh: Assistant Professor at Central University of Haryana, India

Bhupendra Pratap Singh is a dedicated environmental scientist and Assistant Professor at the Central University of Haryana’s Department of Environmental Studies. He also holds a prestigious Institute of Eminence Fellowship at the University of Delhi’s School of Climate Change & Sustainability. With over 40 peer-reviewed publications, his research integrates atmospheric science, public health, water quality, and environmental economics to address pressing environmental challenges, especially in urban and industrial settings.

Online Profiles

ORCID Profile

Dr. Singh actively maintains his professional and academic presence online. His ORCID profile (0000-0002-0513-9082) offers comprehensive access to his published research and citations, while his Scopus ID (57203380134) reflects his extensive contribution to scientific literature. These profiles enable seamless global collaboration and scholarly networking across diverse environmental science communities.

Education

Dr. Singh completed his PhD in Environmental Sciences at Jawaharlal Nehru University (JNU), New Delhi, in 2015, where he also earned his MPhil (2010) and M.Sc. (2007) degrees. Prior to JNU, he obtained his B.Sc. from Banaras Hindu University in 2005. He further enhanced his technical expertise by completing a certificate course in Remote Sensing, GIS, and GNSS from the Indian Institute of Remote Sensing, Dehradun, equipping him with critical tools for spatial environmental analysis.

Research Focus

His research spans primary and secondary data analyses at micro and macro scales, focusing on the interactions between atmospheric pollutants and public health outcomes. Key interests include the behavior of volatile organic compounds, particulate matter, water quality parameters, and their socioeconomic implications. Dr. Singh’s interdisciplinary approach leverages environmental modeling, data science, and policy analysis to provide actionable insights for sustainable development.

Experience

Since February 2023, Dr. Singh has been an Assistant Professor at the Central University of Haryana, where he teaches and leads research initiatives. Prior to this, he served nearly eight years at Deshbandhu College, University of Delhi, contributing significantly to curriculum development and mentoring students. His earlier experience includes a teaching assistantship at PGIMER Chandigarh’s School of Public Health & Community Medicine, which strengthened his expertise in health-environment linkages.

Research Timeline

Dr. Singh’s research career began during his postgraduate studies in the late 2000s, with continuous scholarly contributions following his PhD in 2015. His work has evolved to address contemporary environmental challenges such as air quality during the COVID-19 lockdown and urban pollution dynamics. He has also led and collaborated on international projects, notably with King Abdulaziz University, Saudi Arabia, reflecting his growing global research footprint.

Awards & Honors

In recognition of his impactful research, Dr. Singh was named a Fellow at the Delhi School of Climate Change (University of Delhi) in 2022 and received the Research Excellence Award from the Indian National Science Congress (INSC) the same year. He has also earned accolades for best student paper presentations and holds editorial roles with international journals, reflecting his commitment to advancing environmental science scholarship.

Top-Noted Publication

A landmark publication by Dr. Singh is his 2014 paper “An assessment of ozone levels, UV radiation, and their occupational health hazard estimation during photocopying operation,” published in the Journal of Hazardous Materials (Impact Factor: 14.223). This study provided critical insights into indoor air pollutants and their health risks for workers, establishing a foundation for further research into occupational exposure and environmental health.

  • Singh, Bhupendra Pratap et al. (2024)
    Urban water quality and COVID-19 during the lockdown periods: a case study of Ghaggar river, Punjab, India

  • Singh, Bhupendra Pratap (2024)
    Understanding the dynamics and implications of airborne microplastics in atmosphere

  • Singh, Bhupendra Pratap et al. (2024)
    Potential Changes in Air Pollution Associated with Challenges over South Asia during COVID-19: A Brief Review

  • Sunder, S., Bhandari, K., Sounkaria, S., Vyas, M., Singh, B.P., Chandra, P. (2023)
    Antibiotics and nano-antibiotics in treatment of lung infection: In management of COVID-19

  • Gulia, S., Kothari, V., Ritu, Verma, S.R., Das, A., Singh, B.P., Chandra, P. (2023)
    Bioremediation of PAHs using nanotechnology

Strength & Eligibility for the Distinguished Researcher Award

1. Extensive Research Contributions

  • Over 40 peer-reviewed publications, including high-impact journals like Journal of Hazardous Materials (IF ~14.2), Air Quality, Atmosphere & Health, and Urban Water Journal.

  • Research spans critical domains: air pollution, water quality, public health, environmental economics, and nanotechnology.

  • Interdisciplinary focus makes his work applicable across sectors like public health, climate change, and urban sustainability.

2. Top-Noted & Impactful Publications

  • His 2014 landmark study on indoor air pollution from photocopying is still cited and relevant—reflecting pioneering work in occupational health.

  • Recent works on airborne microplastics, COVID-19’s environmental impact, and urban water quality show ongoing innovation and relevance in current global environmental challenges.

3. Academic Positions & Fellowships

  • Currently an Assistant Professor at the Central University of Haryana, and Institute of Eminence Fellow at the University of Delhi’s School of Climate Change & Sustainability.

  • Prior role at Deshbandhu College, University of Delhi, for nearly 8 years – reflects consistent engagement in academia and mentorship.

4. Global Collaboration & International Recognition

  • Collaborations with King Abdulaziz University and other international bodies highlight his growing global footprint.

  • His Scopus and ORCID profiles demonstrate a strong citation record and scholarly presence.

5. Awards & Honors

  • Research Excellence Award from the Indian National Science Congress (INSC) – a prestigious national recognition.

  • Named Fellow at the Delhi School of Climate Change – demonstrates thought leadership in climate

Panagiotis Tsamos, Chemistry, Best Researcher Award

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Panagiotis Tsamos: Post Doc Researcher at A.U.Th. , Faculty of Sciences, School of Chemistry, Greece

Dr. Panagiotis Tsamos is a dedicated Postdoctoral Researcher at Aristotle University of Thessaloniki (A.U.TH.), specializing in environmental chemistry with an emphasis on radiological protection and heavy metal contamination. He holds a PhD in Chemistry and has extensive experience studying radionuclide behavior and removal in aquatic environments. His research aims to develop innovative, sustainable methods to mitigate environmental pollution caused by industrial activities, contributing to public health and ecological safety.

Online Profiles

ORCID Profile

Dr. Tsamos, While he currently does not maintain a LinkedIn profile or personal website, his research and academic contributions are well-documented through his institutional affiliation with A.U.TH., Faculty of Sciences, School of Chemistry. He actively participates in international conferences and collaborations, enhancing his visibility in the environmental chemistry research community.

Education

He completed his doctoral studies at Aristotle University of Thessaloniki, graduating in July 2022 with a PhD in Chemistry. His academic training included advanced coursework and research in radiochemistry, environmental toxicology, and analytical techniques. His thesis work involved the study of uranium and toxic metal contamination in natural and industrial environments, providing a strong scientific foundation for his ongoing postdoctoral research.

Research Focus

Dr. Tsamos’s research primarily focuses on improving the removal of radionuclides and toxic metals from aqueous solutions through novel sorbent materials and chemical methods. He investigates the environmental impact of industrial pollutants, particularly from oil and coal-fired power plants, aiming to develop effective remediation technologies that reduce radiological and chemical hazards in water bodies and soil.

Experience

With over a decade of experience, Dr. Tsamos has contributed significantly to environmental monitoring and remediation research. He has authored numerous peer-reviewed articles and presented his findings at major international conferences. His collaborations span interdisciplinary teams working on environmental safety, radiological risk assessment, and sustainable pollution control, reflecting a comprehensive approach to addressing complex environmental challenges.

Research Timeline

Beginning his research career in 2014, Dr. Tsamos has steadily expanded his expertise from investigating radionuclide distribution in mining and power plant areas to exploring biosorption techniques and competing cation effects on radionuclide sorption. His progression culminated in a PhD focused on environmental contamination and has now transitioned into postdoctoral work aimed at advancing nuclide removal methodologies and assessing environmental risks associated with industrial pollutants.

Awards & Honors

Although specific awards are not explicitly listed, Dr. Tsamos’s participation in multiple international conferences as an invited speaker and his certification (3EHKR-Z6U8B-YW2O7-G9ITM) demonstrate professional recognition and credibility in his field. His work continues to be cited in environmental science literature, indicating respect and acknowledgement from the academic community.

Top-Noted Publication

Among his most influential works is the 2025 article “The Impact of Crude Oil Facilities on the Accumulation of Heavy Metals and Radionuclides in a Coastal Environment,” published in Water Air Soil Pollution. This study provided critical insights into how industrial operations affect local ecosystems and offered data-driven recommendations for pollution mitigation and environmental monitoring programs, highlighting Panagiotis’s expertise in applied environmental radiochemistry.

  • Noli, F., Papalanis, E., Tsamos, P., Kapnisti, M. (2021). The effect of humic acid and competing cations Na⁺ and Ca²⁺ on the sorption of uranium and europium onto bentonite from Kimolos Island (Greece). Journal of Radioanalytical and Nuclear Chemistry. DOI: 10.1007/s10967-021-07722-y.
    This study investigates the complex interactions affecting radionuclide sorption in bentonite, highlighting environmental factors that influence contaminant mobility in natural clays.

  • Noli, F., Tsamos, P. (2018). Seasonal variations of natural radionuclides, minor and trace elements in lake sediments and water in a lignite mining area of North-Western Greece. Environmental Science and Pollution Research. DOI: 10.1007/s11356-017-9801-z.
    An in-depth analysis of seasonal changes in radionuclide and trace element levels, contributing valuable data on environmental impact related to mining activities.

  • Noli, F., Tsamos, P., Stoulos, S. (2017). Spatial and seasonal variation of radionuclides in soils and waters near a coal-fired power plant of Northern Greece: environmental dose assessment. Journal of Radioanalytical and Nuclear Chemistry. DOI: 10.1007/s10967-016-5082-0.
    This paper provides a comprehensive dose assessment based on radionuclide distribution, offering insights into environmental safety around coal power plants.

  • Noli, F., Tsamos, P. (2016). Concentration of heavy metals and trace elements in soils, waters and vegetables and assessment of health risk in the vicinity of a lignite-fired power plant. Science of the Total Environment. DOI: 10.1016/j.scitotenv.2016.04.098.
    This research evaluates contamination levels and potential health risks from industrial emissions, supporting efforts to manage and mitigate environmental hazards.

Suhail Ahmad, Chemistry, Best Researcher Award

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Doctorate Suhail Ahmad: Research Scholar at Maulana Azad National Urdu University (MANUU)-Hyderabad, India

Suhail Ahmad is a Research Scholar pursuing a Ph.D. in Organic Chemistry at Maulana Azad National Urdu University. With an academic focus on the synthesis of novel heterocyclic compounds, his research explores their photophysical properties and biological activities. Suhail is particularly interested in designing and developing efficient chemosensors for metal ion detection, a vital aspect of environmental monitoring and biological sensing. He has authored multiple high-impact papers and presented his work at several international conferences. Passionate about sustainable chemical science, Suhail aims to bridge the gap between fundamental research and practical applications in chemical sensing.

Online Profiles

Scopus Profile

LinkedIn: Suhail Ahmad LinkedIn
A comprehensive professional network for collaboration and showcasing research expertise.

Citations & Research Impact

  • Total Citations: 122

  • Cited by: 99 documents

  • h-index: 6

Education

  • Ph.D. in Chemistry (Expected: February 2026)
    Maulana Azad National Urdu University
    Suhail’s doctoral research focuses on Organic Chemistry, with a particular emphasis on heterocyclic compounds. His work incorporates innovative methods of one-pot synthesis, photophysical investigation, and evaluation of biological activity. He has excelled in various coursework related to advanced chemical synthesis, spectroscopy, and material science, preparing him for his ongoing research contributions.

  • Master of Science in Chemistry (2018)
    University Name
    A comprehensive program focused on organic and inorganic chemistry with a thesis on reaction mechanisms in organic synthesis.

Research Focus

Suhail’s current research aims to develop novel, highly sensitive fluorescent chemosensors for the detection of metal ions such as Fe³⁺, Cu²⁺, Hg²⁺, and Zn²⁺. Using techniques like one-pot synthesis, multi-step synthesis, and ultrasound-assisted methods, he has contributed to the development of sensors with enhanced selectivity and sensitivity. His work combines organic synthesis with photophysical and biological testing to provide new tools for environmental monitoring, toxicology, and healthcare applications. Additionally, Suhail’s research investigates the potential biological activities of the compounds, such as antimicrobial, antioxidant, and anticancer effects, which could have implications for drug development.

Research Experience

Suhail Ahmad is currently involved in cutting-edge research on the design and synthesis of novel fluorescent chemosensors. As a Research Scholar at Maulana Azad National Urdu University, he has applied various techniques to synthesize and characterize organic compounds with targeted photophysical properties. His projects focus on the one-pot synthesis of heterocyclic compounds, which are then characterized using advanced spectroscopic methods like UV-Vis, fluorescence spectroscopy, and NMR. Over the years, he has collaborated with researchers across multiple disciplines, contributed to multiple published papers, and presented his findings at numerous national and international conferences. His work bridges the gap between synthetic chemistry and real-world applications in environmental monitoring, sensing, and bio-imaging.

Research Timeline

  • 2023: Conducted detailed studies on the synthesis and photophysical properties of benzothiazole-pyrazoline-based sensors for detecting Fe³⁺ ions. Published initial findings in leading journals and presented them at national and international conferences.

  • 2024: Expanded research into the application of thiadiazole derivatives in environmental and biological sensing. Focused on the development of highly selective chemosensors for multiple metal ions, including Cu²⁺ and Hg²⁺. Contributed chapters to the book on Green Carbon Dots published by the American Chemical Society.

  • 2025: Progressed to multi-step synthesis and biological evaluation of triazole-based compounds with photo-responsive properties for ion detection. Expected to complete Ph.D. dissertation in February 2026, covering key findings from his extensive research on sensor design and its biological applications.

Awards & Honors

  • Best Paper Award at the International Conference on “Innovation in Chemical Science for Sustainable Development” (2025) for outstanding research contributions in chemical sensing.

  • Young Researcher Award from the National Conference on Advances in Chemical and Biological Sciences (2023) for excellence in emerging research in chemical sciences.

  • ACS Leadership Scholarship (2022) awarded for leadership potential and academic excellence in chemistry.

  • Excellence in Research Award at Maulana Azad National Urdu University (2024) for the innovative approach in synthesizing novel chemosensors.

Top-Noted Publications

  1. “A Review on Recent Progress in Synthesis and Biological Activities of Thiadiazole and its Derivatives”
    Journal of Molecular Structure, 2024
    This review paper presents a comprehensive overview of the synthesis strategies and biological properties of thiadiazole derivatives, discussing their potential applications in drug discovery and environmental sensing.

  2. “Photophysical Investigation of One-Pot Synthesized Novel Indenofluorene Derivative (BDP) as a Fluorescent Chemosensor for Fe³⁺ Ion Detection”
    Journal of Fluorescence, 2024
    The research focuses on a novel chemosensor for Fe³⁺ ions synthesized using a one-pot approach, highlighting its application in aqueous media for environmental monitoring.

  3. “Multi-step Synthesis and Photophysical Investigation of Benzothiazole-Pyrazoline Based Fluorescent Chemosensor for Fe³⁺ Ion Detection”
    Journal of Molecular Structure, 2025
    This paper details the synthesis of a benzothiazole-pyrazoline derivative, a selective “turn-off” fluorescent chemosensor for detecting Fe³⁺ ions in aqueous solutions.

  4. “A Comprehensive Review on Recent Advances of Remarkable Scaffold Triazole-based Schiff Base: Synthesis and Photoresponsive Chemosensors for Al³⁺ Ion Detection”
    Journal of Fluorescence, 2025
    This extensive review examines the synthesis of triazole-based Schiff base compounds and their potential as photoresponsive chemosensors, focusing on their application in detecting Al³⁺ ions.

Dharmendra Kumar Yadav, Chemistry, Best Researcher Award

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Dr. Dharmendra Kumar Yadav: Assistant Professor at Department of Biologics, College of Pharmacy, Gachon University, Korea

Dr. Dharmendra Kumar Yadav is a globally recognized scientist, currently serving as an Assistant Professor at the Department of Biologics, College of Pharmacy, Gachon University, South Korea. With a Ph.D. in Biological Science from CSIR-Central Institute of Medicinal and Aromatic Plants (Lucknow, India), he is regarded as one of the world’s top 2% scientists. His research integrates molecular modeling, chemoinformatics, bioinformatics, and plasma medicine, focusing on computational approaches for drug discovery and therapeutic applications. His work explores the in-silico prediction of biological activities and the molecular mechanisms behind plasma’s interactions with biomolecules, particularly in cancer treatment. Dr. Yadav’s groundbreaking contributions to plasma chemistry and bioinformatics have positioned him at the forefront of these rapidly evolving fields.

Online Profiles

Google Scholar Profile

  • Citations: 4874 total, with 3868 since 2020.

  • h-index: 37 total, with 32 since 2020.

  • i10-index: 122 total, with 113 since 2020.

Dr. Yadav maintains a robust digital presence through platforms such as Google Scholar, ResearchGate, and LinkedIn, where his work on molecular dynamics simulations, plasma medicine, and drug design is extensively shared. His profiles serve as a bridge between his research and the broader scientific community, enabling collaborations with top universities and research institutes. He regularly engages in academic discourse, providing valuable insights into cutting-edge computational techniques and interdisciplinary research. Through these platforms, Dr. Yadav not only shares his findings but also mentors the next generation of scientists, fostering international collaborations and partnerships.

Education

Dr. Yadav’s educational background is grounded in interdisciplinary research, combining biological sciences with advanced computational techniques. He earned his Ph.D. in Biological Science in 2013, working on QSAR model development for anticancer compounds at CSIR-Central Institute of Medicinal and Aromatic Plants, affiliated with Jawaharlal Nehru University, India. His research during his doctorate focused on developing predictive models for natural compounds, aiming to assess their in-vitro and in-vivo anticancer activities. Prior to his Ph.D., Dr. Yadav obtained his M.Sc. in Biomedical Science from Bundelkhand University, Jhansi, India, where he laid the foundation for his career in computational biology and drug discovery.

Research Focus

Dr. Yadav’s research is multifaceted, spanning several cutting-edge areas of computational biology, chemistry, and medicine. At the core of his work is the development of predictive QSAR models aimed at the functional identification of DNA and protein motifs, leveraging statistical methods and machine learning algorithms. His research into plasma medicine focuses on understanding the interactions between reactive plasma species and cellular biomolecules, such as DNA, proteins, and phospholipids. By using computational techniques like molecular dynamics simulations and density functional theory (DFT), Dr. Yadav seeks to unravel the underlying mechanisms of plasma therapy, particularly for cancer treatment. His other areas of interest include nanotechnology and plasma-surface interactions, with a goal to improve the efficiency of plasma for chemical production and fuel synthesis.

Experience

Dr. Yadav has over 10 years of academic and professional experience in both research and teaching. Since March 2024, he has been an Assistant Professor at Gachon University, where he teaches and mentors undergraduate, master’s, and Ph.D. students in the fields of pharmaceutical sciences and computational biology. His academic journey also includes roles as Principal Scientist at Arontier Co. Ltd., where he worked on drug development projects, and Research Professor at Gachon University from 2016 to 2019. Prior to his academic tenure, Dr. Yadav gained international exposure as a Post-Doctoral Research Fellow at Hanyang University, Seoul, South Korea, and a CSIR-Research Associate at the University of Delhi. His diverse experience across academia, research institutions, and industry positions him as a leading expert in his field.

Research Timeline

  • 2021–2022: Co-Principal Investigator for an AI-based anticancer drug development project funded by Gachon University Hospital, focusing on the development of RET-targeted therapies.

  • 2017–2020: Led the National Research Foundation of Korea (NRF) funded project on plasma medicine, exploring its application in cancer therapy and the interaction of reactive species with biomolecules.

  • 2015–2028: As Principal Investigator, led a long-term project funded by the Science & Engineering Research Board (SERB) on QSAR and molecular docking of COX inhibitors.

  • 2014–2015: Worked as a Research Associate at University of Delhi, developing QSAR models for anticancer natural products and advancing drug discovery.

  • 2013–2014: Postdoctoral Fellow at Hanyang University, where he conducted advanced research in nanoscale characterization and the study of plasma interactions with materials.

Awards & Honors

Dr. Yadav’s exceptional contributions to molecular dynamics, drug design, and plasma medicine have earned him recognition as one of the top 2% scientists worldwide. He has received numerous prestigious awards, including research grants from major funding agencies such as the National Research Foundation of Korea (NRF) and Science & Engineering Research Board (SERB). His achievements in interdisciplinary research, particularly in computational biology and cancer therapy, have also led to invitations to deliver keynote speeches at international conferences. Dr. Yadav is highly regarded for his leadership in advancing computational tools for drug discovery and plasma applications in medicine.

Top-Noted Publications

Dr. Yadav’s academic work has been widely published in high-impact journals and presented at international conferences. His publications on molecular dynamics simulations of reactive oxygen species (ROS) in plasma medicine are among the most cited in the field. Notable publications include studies on the interaction of plasma-generated ROS with native and oxidized lipid membranes and their implications for cancer therapy. His research on QSAR modeling for anticancer compounds has influenced the development of new drug discovery approaches. Dr. Yadav’s contributions have significantly advanced the understanding of plasma-biomolecule interactions, making him a leading authority in computational toxicology and drug design.

  • Epigallocatechin 3-gallate: From green tea to cancer therapeutics

    • Citations: 193

    • Published: 2022

    • This one explores the potential of EGCG (a key component of green tea) in cancer treatment. Green tea’s bioactive compounds, like EGCG, have been linked to a variety of health benefits, including anti-cancer effects.

  • Biomedical features and therapeutic potential of rosmarinic acid

    • Citations: 168

    • Published: 2022

    • This article focuses on rosmarinic acid, which is found in herbs like rosemary and basil. It has antioxidant, anti-inflammatory, and antimicrobial properties, making it a great candidate for therapeutic applications.

  • Influence of reactive species on the modification of biomolecules generated from the soft plasma

    • Citations: 140

    • Published: 2015

    • This paper looks at how reactive species (like free radicals) interact with biomolecules, a topic of interest in plasma medicine and biotechnology.

  • Molecular dynamic simulations of oxidized skin lipid bilayer and permeability of reactive oxygen species

    • Citations: 118

    • Published: 2019

    • This publication discusses how reactive oxygen species (ROS) affect the permeability of skin lipid bilayers, which could have implications for skin health, drug delivery, and cosmetics.

  • Identification of novel acetylcholinesterase inhibitors designed by pharmacophore-based virtual screening, molecular docking and bioassay

    • Citations: 100

    • Published: 2018

    • This one focuses on drug discovery for neurodegenerative diseases by identifying compounds that inhibit acetylcholinesterase, an enzyme linked to Alzheimer’s disease.

Andrea Darù, Chemistry, Best Researcher Award

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Doctorate Andrea Darù: Postdoc at The University of Chicago, United States

Andrea Darù, PhD, is a dedicated computational chemist with a deep passion for computational modeling and simulation across inorganic, organic, and biological systems. With over 10 years of experience, he specializes in porous materials design, including Metal-Organic Frameworks (MOFs), Covalent Organic Frameworks (COFs), and other surface materials. Darù has a strong background in quantum chemistry techniques, such as density functional theory (DFT), ab initio methods, and Monte Carlo simulations, and has extended his expertise to machine learning applications in chemistry. His research focuses on the design of novel materials for catalysis and climate solutions, and he is motivated to bridge the gap between computational studies and experimental research. His interdisciplinary approach combines computational chemistry with cutting-edge experimental work, contributing to innovations in catalysis and sustainable energy.

Online Profiles

ORCID Profile

Education

Andrea completed his Ph.D. in Chemistry at KU Leuven in Belgium in 2020, specializing in non-noble metal catalysis and computational simulations of chemical reactions. His doctoral work was part of the Marie Skłodowska-Curie Initial Training Network project, Horizon 2020 NoNoMeCat, where he investigated the role of metal clusters in catalysis. Before his Ph.D., Andrea earned dual Master’s degrees in Chemistry from the University of Zaragoza (Spain) and University of Ferrara (Italy) in 2015 and 2013, respectively. His academic journey provided him with a strong foundation in computational chemistry, leading to his passion for applying computational methods to real-world challenges in catalysis and material science.

Research Focus

Andrea’s primary research interest lies in the computational design of porous materials, particularly Metal-Organic Frameworks (MOFs) and Covalent Organic Frameworks (COFs). His work is geared toward solving global challenges like sustainable energy, carbon capture, and water harvesting. By using advanced computational tools such as DFT, Monte Carlo simulations, and machine learning, he explores the thermo- and electro-catalytic processes in CO2 conversion, aiming to create novel materials for energy storage and environmental solutions. His other research areas include molecular qubits for quantum computing, catalysis mechanisms, and the development of tools for high-throughput screening of potential framework materials. He also curates extensive databases of porous materials, contributing to the open science movement.

Experience

Andrea Darù’s postdoctoral work at the University of Chicago (2022 – present) focuses on the development of generative tools for rapid identification and design of novel reticular frameworks, particularly those suited for CO2 conversion and water harvesting. His work has led to the conceptualization of a novel iron-sulfur-based coordination polymer for electrocatalysis, and his contributions to the field of COF design have influenced both academia and industry. Prior to this, Andrea was a Postdoctoral Associate at Scripps Research (2020 – 2022), where he led computational studies on metal-catalyzed reactions, optimizing reaction conditions and developing microkinetic models to understand catalytic mechanisms. His Ph.D. research at KU Leuven (2016 – 2020) focused on non-noble metal catalysis in cross-coupling reactions, uncovering new insights into the catalytic role of iron clusters, which challenged existing paradigms in catalysis. Andrea also completed an internship at Syngenta (Switzerland) in 2018, where he employed Fukui functions to develop descriptors for organic molecule databases.

Research Timeline

  • Dec 2022 – Present: Postdoctoral Researcher at The University of Chicago, working on developing generative tools for materials discovery, CO2 conversion catalysis, and COF-based atmospheric water harvesting.
  • Oct 2020 – Dec 2022: Postdoctoral Associate at Scripps Research (San Diego), focusing on computational modeling of metal-catalyzed reactions, including ligand design and microkinetic modeling.
  • Apr 2016 – Sep 2020: Doctoral Researcher at KU Leuven (Belgium), specializing in non-noble metal catalysis and computational simulations for cross-coupling reactions.
  • Jan – Mar 2018: Intern at Syngenta (Switzerland), developing a database of organic molecules using Fukui functions as molecular descriptors.

Awards & Honors

Andrea has been recognized for his excellence in research and mentorship. In 2024, he received the Maria Lastra Postdoctoral Scholar Excellence in Mentoring Award (Honorable Mention) from the University of Chicago, highlighting his commitment to fostering the next generation of scientists. In 2023, he earned a certificate in Entrepreneurship for Science and Medicine from the University of Chicago Booth School of Business, expanding his understanding of the commercial application of scientific research. Andrea also recently completed the AI Agents Fundamentals certification from Hugging Face in February 2025, reflecting his growing interest in the intersection of AI and computational chemistry.

Top-Noted Publication

Andrea Darù has authored several highly cited papers, particularly in the field of catalysis and porous materials design. Notably, his paper “Symmetry is the Key to the Design of Reticular Frameworks” (Advanced Materials, 2025) explores the role of symmetry in the rational design of reticular frameworks. Another highly impactful publication, “Pinpointing the Onset of Water Harvesting in Reticular Frameworks from Structure” (ACS Central Science, 2025), delves into the design principles that enable effective atmospheric water harvesting using COFs. His work on iron-catalyzed Kumada cross-coupling reactions, “Iron-catalyzed Kumada Cross-coupling Reaction Involving Fe8Me12- and Related Clusters: A Computational Study” (ACS Catalysis, 2022), challenged traditional concepts in metal catalysis and remains a reference in the field.

 

Symmetry is the Key to the Design of Reticular Frameworks
Advanced Materials | May 2, 2025 | DOI: 10.1002/adma.202414617

Contributors: Andrea Darù, John S. Anderson, Davide M. Proserpio, Laura Gagliardi

This paper discusses the crucial role of symmetry in the rational design of reticular frameworks (such as MOFs and COFs), providing computational insights into how symmetry can guide the creation of functional materials with tailored properties. The work aims to accelerate the discovery of novel materials with applications in catalysis and energy storage.

Designing Molecular Qubits: Computational Insights into First-Row and Group 6 Transition Metal Complexes
Preprint | April 8, 2025 | DOI: 10.26434/chemrxiv-2025-3tg1x-v3

Contributors: Arturo Sauza-de la Vega, Andrea Darù, Stephanie Nofz, Laura Gagliardi

This preprint provides valuable computational insights into the design of molecular qubits using first-row and group 6 transition metal complexes. The paper presents potential pathways for advancing quantum computing with molecular systems, offering a deep dive into electronic structure and qubit properties.

Electronically Tunable Low-Valent Uranium Metallacarboranes
Inorganic Chemistry | March 17, 2025 | DOI: 10.1021/acs.inorgchem.4c04431

Contributors: Kent O. Kirlikovali, Alejandra Gómez-Torres, Arturo Sauza-de la Vega, Andrea Darù, Matthew D. Krzyaniak, Palak Garg, Christos D. Malliakas, Michael R. Wasielewski, Laura Gagliardi, Omar K. Farha

This publication delves into uranium metallacarboranes and their potential as electronically tunable materials. The work explores their unique chemical properties and how these can be controlled for use in various applications, including catalysis and energy storage.

Pinpointing the Onset of Water Harvesting in Reticular Frameworks from Structure
ACS Central Science | February 17, 2025 | DOI: 10.1021/acscentsci.4c01878

Contributors: Ha L. Nguyen, Andrea Darù, Saumil Chheda, Ali H. Alawadhi, S. Ephraim Neumann, Lifen Wang, Xuedong Bai, Majed O. Alawad, Christian Borgs, Jennifer T. Chayes, et al.

This paper explores the structural basis for water harvesting in reticular frameworks, aiming to uncover how certain materials can be engineered for effective atmospheric water capture. The research has significant implications for sustainable water production in arid regions.

Designing Molecular Qubits: Computational Insights into First-Row and Group 6 Transition Metal Complexes
Preprint | February 5, 2025 | DOI: 10.26434/chemrxiv-2025-3tg1x-v2

Contributors: Arturo Sauza-de la Vega, Andrea Darù, Stephanie Nofz, Laura Gagliardi

This earlier version of the preprint provides foundational insights into the computational design of molecular qubits, offering a path forward in the development of quantum computing materials that utilize transition metal complexes.

Hongbing Song, Chemistry, Best Researcher Award

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Prof. Dr. Hongbing Song: Professor at Qingdao University of Science and Technology, China

Hongbing Song is a Professor at Qingdao University of Science and Technology, specializing in green chemistry, catalytic materials, and sustainable chemical processes. With a strong background in molecular design and synthesis, his work aims to develop efficient catalysts for cleaner and more sustainable industrial applications.

He has published over 80 SCI-indexed papers in high-impact journals and has contributed significantly to the field of catalysis. In addition to his research, he actively participates in peer review for top-tier journals, ensuring the advancement of scientific knowledge in his domain.

Online Profiles

ORCID Profile

Scopus Profile

Dr. Hongbing Song is affiliated with Qingdao University of Science and Technology and has an extensive research portfolio in catalysis and materials science. His contributions have been widely recognized in the scientific community.

Total Citations

Dr. Song’s work has received 1,843 citations from 1,581 documents, highlighting the influence of his research in catalysis, nanomaterials, and chemical engineering.

Total Publications

He has authored 99 scientific papers, contributing significantly to high-impact journals, including ACS Applied Materials & Interfaces, Molecular Catalysis, and Fuel.

h-index

Dr. Song holds an h-index of 24, reflecting both the quantity and quality of his research publications. This metric signifies that at least 24 of his papers have been cited 24 times or more, indicating a strong research impact.

Education

Hongbing Song earned his Bachelor of Science degree from Hubei University of Technology, where he developed a strong foundation in chemical engineering and materials science. His undergraduate research sparked his interest in catalysis and sustainable chemistry, leading him to pursue further studies.

He completed his Ph.D. at South China University of Technology, where he focused on catalytic materials and reaction mechanisms. During his doctoral studies, he had the opportunity to conduct joint research at the École Polytechnique Fédérale de Lausanne (EPFL) in Switzerland. This international experience enriched his expertise and exposed him to advanced catalytic technologies.

His training at EPFL allowed him to work with leading scientists in the field, further strengthening his research capabilities in catalyst design and application.

Research Focus

Hongbing Song’s research revolves around the molecular design and synthesis of catalytic materials, aiming to develop environmentally friendly catalysts for industrial applications. His work integrates principles of green chemistry to enhance catalytic efficiency and reduce harmful byproducts.

One of his key research areas is the development of novel nanostructured catalysts for biomass conversion and hydrogen production. These catalysts play a crucial role in sustainable energy solutions, addressing global energy and environmental challenges.

He is also interested in heterogeneous catalysis, particularly in oxidation and hydrogenation reactions. By designing highly active and selective catalysts, he aims to improve the efficiency of chemical processes used in the production of fuels and fine chemicals.

Additionally, his work explores catalytic reaction mechanisms using in situ characterization techniques. Understanding these mechanisms at the molecular level enables the optimization of catalyst performance for industrial applications.

Experience

After earning his Ph.D., Hongbing Song joined Qingdao University of Science and Technology as a Lecturer, where he continued his research on catalytic materials and sustainable processes. His dedication to teaching and research quickly earned him recognition within the academic community.

In 2016-2017, he conducted research at the National University of Singapore, where he collaborated with leading scientists on advanced catalytic materials. This experience broadened his expertise and allowed him to apply his knowledge to real-world industrial challenges.

In 2017, he was promoted to Associate Professor, reflecting his contributions to research and education. He played a key role in mentoring students and leading research projects focused on green catalysis and sustainable chemical engineering.

His continued excellence in research and teaching led to his promotion to full Professor in 2021. Currently, he leads several research projects funded by national and international agencies, focusing on the development of next-generation catalysts for clean energy and environmental applications.

Research Timeline

  • 2010-2012: Conducted joint Ph.D. research at EPFL, Switzerland, focusing on catalyst synthesis and characterization.
  • 2012: Earned Ph.D. from South China University of Technology, specializing in green catalysis.
  • 2012: Joined Qingdao University of Science and Technology as a Lecturer, initiating independent research on catalytic materials.
  • 2016-2017: Worked as a visiting researcher at the National University of Singapore, expanding his expertise in nanostructured catalysts.
  • 2017: Promoted to Associate Professor, leading multiple research projects on sustainable catalysis.
  • 2021: Promoted to full Professor, overseeing research in catalytic materials for energy and environmental applications.

Awards & Honors

Hongbing Song has received multiple research grants from the National Natural Science Foundation of China (NSFC) and other funding agencies, supporting his work on advanced catalytic materials. His contributions have been recognized through various national and international awards.

He holds several patents related to catalytic materials and separation technologies, demonstrating the practical impact of his research. These patents contribute to industrial applications, particularly in energy and environmental sectors.

As a respected reviewer for journals such as ACS Catalysis and Applied Catalysis B: Environmental, he plays a crucial role in maintaining research quality in the field of catalysis. His expertise is frequently sought for evaluating cutting-edge research in green chemistry and sustainable processes.

Top-Noted Publications

  1. Regulation of Oil/Water Separation Using Pyridinium-Based Poly(ionic liquid)s with Prewetted Induced Responsive Transition
    ACS Applied Materials & Interfaces, 2025 (DOI: 10.1021/acsami.4c17987)

    • Developed a novel poly(ionic liquid)-based system for efficient oil/water separation, enhancing industrial wastewater treatment and environmental sustainability.

  2. A Broad-Spectrum Oxidation Capability Ru-CeO₂ Catalyst for Efficient Synergistic Selective Oxidation of Benzyl Alcohol
    Molecular Catalysis, 2024 (DOI: 10.1016/j.mcat.2024.114383)

    • Designed a Ru-CeO₂ catalyst with enhanced oxidation activity, providing insights into synergistic catalytic mechanisms for selective oxidation reactions.

  3. One-Step Synthesis of BiOCl/Bi₄NbO₈Cl Heterostructures with High-Purity and Enhanced Photocatalytic Activities via In-Situ Room-Temperature Acid-Etching
    Molecular Catalysis, 2024 (DOI: 10.1016/j.mcat.2024.113979)

    • Developed a novel heterostructured photocatalyst with improved performance in environmental remediation and solar energy conversion.

  4. Oxidative Esterification of 5-Hydroxymethylfurfural to Dimethyl 2,5-Furandicarboxylate over Au-Supported Poly(ionic liquid)s
    Fuel, 2024 (DOI: 10.1016/j.fuel.2023.130354)

    • Investigated gold-supported poly(ionic liquid)s for the oxidative esterification of biomass-derived compounds, contributing to sustainable chemical production.

  5. Green and Designable Deep Eutectic Solvents for Extraction Separation of Oxygenated Compounds in Fischer-Tropsch Oil Products: Hydrogen Bond Descriptors and Structure–Activity Study
    Separation and Purification Technology, 2024 (DOI: 10.1016/j.seppur.2023.125540)

    • Developed hydrogen bond-based deep eutectic solvents for efficient extraction of oxygenated compounds, enhancing the purity of fuel products.