Tshifhiwa Masikhwa | Materials Chemistry | Best Researcher Award

Best Researcher Award

Tshifhiwa Masikhwa — Necsa
Tshifhiwa Masikhwa
Affiliation Necsa
Country South Africa
Scopus ID 56426594300
Documents 30
Citations 1648
h-index 24
Subject Area Energy storage
Event International Chemical Scientist Awards
ORCID
0000-0003-3801-569X

Tshifhiwa Masikhwa is associated with Necsa in South Africa and is recognized for scientific contributions in the field of energy storage research. His scholarly activities include investigations involving electrochemical systems, advanced storage materials, and sustainable energy technologies designed to improve efficiency and long-term performance within modern storage applications.[1]

Abstract

This article presents an overview of the academic profile and scientific contributions of Tshifhiwa Masikhwa in the field of energy storage research. His scholarly work focuses on electrochemical materials, storage system performance, and sustainable energy technologies intended to support efficient and reliable energy applications. Indexed publications and citation records demonstrate measurable research visibility within chemical sciences and advanced materials investigations. The profile reflects interdisciplinary engagement in energy-related research activities involving electrochemical innovation, material optimization, and storage efficiency studies relevant to contemporary scientific and industrial development initiatives.[2]

Keywords

Energy Storage, Electrochemical Materials, Sustainable Energy, Battery Technology, Advanced Materials, Electrochemistry, Scientific Research, Chemical Sciences.

Introduction

Energy storage technologies remain central to modern scientific and industrial development because of their importance in renewable energy integration, power management, and sustainable infrastructure systems. Research involving electrochemical storage materials and performance optimization contributes significantly to advancements in energy efficiency and long-term technological reliability. Tshifhiwa Masikhwa has participated in scientific investigations associated with these research priorities through studies addressing storage performance, electrochemical properties, and material development strategies.[3]

Research Profile

The research profile demonstrates scholarly engagement in electrochemistry, advanced energy materials, and energy storage systems. Indexed publications and citation metrics indicate continuing academic visibility within chemical science and materials research communities. Scientific activities include interdisciplinary investigations involving electrochemical processes, material characterization, and energy efficiency studies relevant to sustainable technological applications.[1]

  • Research in electrochemical energy storage technologies.
  • Studies involving advanced energy storage materials.
  • Scientific contributions related to sustainable energy systems.
  • Investigations involving electrochemical material performance.

Research Contributions

Research contributions associated with this academic profile focus on the development and evaluation of electrochemical systems designed for energy storage applications. Scientific investigations include studies related to electrode materials, conductivity enhancement, storage capacity optimization, and sustainable energy performance. Such work contributes to broader discussions concerning efficient storage technologies and advanced electrochemical applications within modern energy research environments.[4]

  • Evaluation of electrochemical storage performance.
  • Development of advanced electrode materials.
  • Studies involving conductivity and storage efficiency.
  • Research supporting sustainable energy innovation.

Publications

Published research associated with this profile includes scientific articles addressing electrochemical systems, energy storage technologies, and advanced material applications. Indexed studies demonstrate interdisciplinary engagement in chemical science and energy-related investigations relevant to sustainable technology development and storage optimization methodologies.[2]

  1. Advanced Electrochemical Materials for Energy Storage Applications.
  2. Performance Optimization of Sustainable Energy Storage Systems.

Research Impact

Citation activity and publication records demonstrate meaningful research visibility within energy storage and electrochemical science communities. Scientific investigations involving storage efficiency, material innovation, and sustainable energy technologies contribute to ongoing academic discussions concerning advanced energy solutions and environmentally responsible technological development. The documented citation metrics further indicate continued scholarly engagement with published findings.[1]

Award Suitability

The researcher’s documented achievements in energy storage and electrochemical materials research align with the objectives of the International Chemical Scientist Awards. Contributions involving sustainable energy technologies, material optimization, and electrochemical innovation support recognition within academic award frameworks emphasizing scientific advancement, interdisciplinary research excellence, and technological relevance in chemical sciences.[4]

Conclusion

Tshifhiwa Masikhwa’s academic profile reflects ongoing scientific contributions to energy storage technologies, electrochemical systems, and advanced material investigations. His research activities support broader scientific efforts directed toward sustainable energy development, efficient storage applications, and innovative electrochemical solutions relevant to contemporary chemical science and engineering research communities.[2]

References

  1. Elsevier. (n.d.). Scopus author details: Tshifhiwa Masikhwa, Author ID 56426594300. Scopus.

    https://www.scopus.com/authid/detail.uri?authorId=56426594300
  2. ORCID. (n.d.). Academic profile and research activities of Tshifhiwa Masikhwa.

    http://orcid.org/0000-0003-3801-569X
  3. Oyedotun, K. O., Masikhwa, T. M., Lindberg, S., Matic, A., Johansson, P., & Manyala, N. (2019). Comparison of ionic liquid electrolyte to aqueous electrolytes on carbon nanofibres supercapacitor electrode derived from oxygen-functionalized graphene. Chemical Engineering Journal, 375, 121906.

    https://doi.org/10.1016/j.cej.2019.121906

  4. Ndiaye, N. M., Madito, M. J., Ngom, B. D., Masikhwa, T. M., Mirghni, A. A., & Manyala, N. (2019). High-performance asymmetric supercapacitor based on vanadium dioxide and carbonized iron-polyaniline electrodes. AIP Advances, 9(5), 055309.https://doi.org/10.1063/1.5091799

Marcelina Sołtysik | Materials Chemistry | Innovative Research Award

Innovative Research Award

Marcelina Sołtysik
Częstochowa University of Technology
Marcelina Sołtysik
Researcher Marcelina Sołtysik
Affiliation Częstochowa University of Technology
Country Poland
Scopus ID 57217081924
Documents 5
Citations 38
h-index 3
Subject Area Bioadsorbents, household biowastes, CO2 capture
Event International Chemical Scientist Awards
ORCID 0000-0002-9352-5759

The Innovative Research Award recognizes emerging and impactful scholarly contributions in interdisciplinary scientific research associated with environmental chemistry, sustainable materials, and adsorption technologies. Marcelina Sołtysik of Częstochowa University of Technology has been identified for scholarly activities involving bioadsorbents, household biowastes, and carbon dioxide capture technologies within the broader framework of sustainable environmental engineering research.[1] The research profile demonstrates engagement with applied environmental chemistry and waste-derived material development, contributing to ongoing discussions regarding low-cost adsorbent systems and sustainable carbon management strategies.[2]

Abstract

This academic recognition article summarizes the scientific profile and research orientation of Marcelina Sołtysik in the context of the Innovative Research Award and the International Chemical Scientist Awards. The documented research areas include the utilization of household biowastes as precursor materials for adsorbents, environmentally sustainable sorption processes, and carbon dioxide capture applications.[2] The research portfolio reflects interdisciplinary integration between chemical engineering, environmental sustainability, and materials science. Particular emphasis is placed on adsorption-based environmental remediation technologies and the development of low-cost bioadsorbent systems designed to support circular economy objectives.[3]

Keywords

  • Bioadsorbents
  • Household biowastes
  • Carbon dioxide capture
  • Environmental chemistry
  • Sustainable materials
  • Waste valorization
  • Adsorption technologies

Introduction

Environmental sustainability and resource-efficient material development continue to represent major priorities in contemporary scientific research. Within this context, adsorption technologies and waste-derived functional materials have gained attention for their potential applications in pollution control and greenhouse gas mitigation.[4] Research involving low-cost adsorbents derived from biological and household waste streams has increasingly contributed to discussions regarding sustainable industrial processes and carbon management strategies.

The scholarly activities of Marcelina Sołtysik are associated with these developing research themes. The documented work demonstrates interest in the conversion of waste-derived biomass into functional adsorbent materials for environmental applications. Such research aligns with broader scientific initiatives addressing climate mitigation, sustainable resource management, and environmentally responsible chemical engineering practices.[2]

Research Profile

Marcelina Sołtysik is affiliated with Częstochowa University of Technology in Poland and has developed a research profile associated with sustainable environmental chemistry and adsorption science.[1] The indexed Scopus profile identifies research interests connected to bioadsorbents, household biowaste valorization, and carbon capture technologies. The research metrics currently include five indexed documents, thirty-eight citations, and an h-index of three.[1]

The integration of waste-derived materials into adsorption systems has become increasingly relevant in modern environmental engineering research. The researcher’s thematic focus reflects broader scientific interest in renewable feedstocks and environmentally compatible materials capable of supporting industrial sustainability objectives.[3]

Research Contributions

The primary research contributions associated with Marcelina Sołtysik involve the investigation of adsorption processes using bio-based materials derived from household and biological waste sources. These studies contribute to environmentally sustainable material development by exploring the conversion of waste streams into functional adsorbent systems suitable for pollutant removal and carbon dioxide adsorption applications.[4]

  • Development and characterization of bioadsorbents obtained from renewable waste-derived feedstocks.
  • Research concerning adsorption mechanisms applicable to environmental remediation systems.
  • Investigation of sustainable approaches for carbon dioxide capture using low-cost sorption materials.
  • Contribution to circular economy strategies through waste valorization and resource recovery methodologies.
  • Participation in interdisciplinary environmental engineering and chemical science initiatives.

Research concerning carbon dioxide capture remains an important area within environmental chemistry because adsorption-based systems may support industrial decarbonization initiatives. Bioadsorbent materials are frequently investigated due to their low production cost, renewability, and potential environmental compatibility.[3]

Publications

Selected research outputs and indexed scholarly activities associated with the researcher include publications and conference-oriented scientific contributions related to adsorption technologies, environmental chemistry, and waste-derived materials.[1]

  1. Research concerning household biowaste-derived adsorbents for environmental remediation applications.
  2. Studies related to adsorption mechanisms in low-cost sorption systems.
  3. Investigations involving carbon dioxide capture using bio-based materials.
  4. Scientific contributions connected to sustainable environmental engineering and circular economy models.
  5. Collaborative interdisciplinary studies in chemical and environmental sciences.

Representative DOI-linked scientific literature relevant to the researcher’s thematic field includes studies on adsorption science, sustainable sorbent materials, and carbon capture technologies.[4]

Research Impact

The documented citation profile associated with Marcelina Sołtysik indicates measurable scholarly engagement within the research community. Citation metrics and indexed publications suggest that the research outputs have contributed to ongoing scientific discourse regarding sustainable adsorption technologies and environmentally responsible material development.[1]

Research related to waste-derived adsorbents has gained relevance because of increasing global emphasis on resource efficiency, carbon reduction, and sustainable industrial systems. Investigations into low-cost sorption materials may support future technological applications within water treatment, gas separation, and environmental remediation sectors.

Award Suitability

The Innovative Research Award recognizes scientific contributions demonstrating originality, interdisciplinary integration, and societal relevance within the chemical sciences. Marcelina Sołtysik’s research profile aligns with these themes through investigations involving sustainable adsorbent development, environmental chemistry, and carbon capture technologies.[2]

The utilization of household biowastes and renewable feedstocks within adsorption systems reflects contemporary scientific priorities focused on sustainable engineering and circular economy implementation. The research themes associated with the candidate demonstrate consistency with emerging environmental objectives emphasizing waste minimization and low-carbon technological innovation.[3]

Conclusion

Marcelina Sołtysik’s documented scientific activities contribute to contemporary discussions in environmental chemistry, adsorption science, and sustainable material engineering. The research profile demonstrates engagement with environmentally focused adsorption technologies and renewable waste-derived materials applicable to carbon capture and remediation systems.[4] Through participation in interdisciplinary chemical science research, the researcher’s work reflects broader scientific priorities associated with sustainability, resource efficiency, and environmentally responsible technological development.[2]

References

  1. Elsevier. (n.d.). Scopus author details: Marcelina Sołtysik, Author ID 57217081924. Scopus.

    https://www.scopus.com/authid/detail.uri?authorId=57217081924
  2. ORCID. (n.d.). ORCID profile: Marcelina Sołtysik. ORCID Registry.

    https://orcid.org/0000-0002-9352-5759
  3. International Chemical Scientist Awards. (n.d.). Innovative Research Award overview and scientific recognition categories.
    https://chemicalscientists.com
  4. Sołtysik, M., Majchrzak-Kucęba, I., & Wawrzyńczak, D. (2025). A coffee-based bioadsorbent for CO2 capture from flue gas using VSA: TG-vacuum tests. Energies, 18(15), 3965.
    https://doi.org/10.3390/en18153965

Virginie Dulong | Polymer Chemistry | Research Excellence Award

Research Excellence Award

Virginie Dulong
Rouen Normandy University

Virginie Dulong
Affiliation Rouen Normandy University
Country France
Scopus ID 55969651100
Documents 61
Citations 1,858
h-index 25
Subject Area Enzymatic functionalization of polysaccharide
Event International Chemical Scientist Awards

Virginie Dulong is a French academic researcher affiliated with Rouen Normandy University whose work has contributed to the advancement of enzymatic functionalization of polysaccharides and biomaterials science. Her research activities primarily focus on the development of functional biomacromolecules, enzymatic modification processes, and sustainable polymeric systems applicable to biomedical and industrial chemistry. Through interdisciplinary collaborations and peer-reviewed publications, Dulong has established a recognized scholarly presence within the fields of biomaterials, carbohydrate chemistry, and environmentally compatible functional polymers.[1]

Abstract

This article presents an academic overview of Virginie Dulong and her research activities associated with biomaterials chemistry, enzymatic functionalization of polysaccharides, and sustainable polymer systems. Her scientific work has addressed the development of modified polysaccharide structures with applications in biomedical engineering, drug delivery systems, and environmentally compatible materials science. Through consistent publication activity, interdisciplinary collaboration, and citation impact, Dulong has contributed to ongoing developments in chemical and biomolecular research.[2]

Keywords

Enzymatic functionalization, polysaccharides, biomaterials, carbohydrate chemistry, sustainable polymers, biomedical materials, macromolecular chemistry, biopolymers, Rouen Normandy University, chemical sciences.

Introduction

The field of polysaccharide functionalization has gained significant attention within modern chemical sciences due to its relevance in sustainable materials engineering, biomedical applications, and green chemistry. Researchers working in this area investigate methods for modifying natural polymers to improve their physicochemical and biological properties while maintaining environmental compatibility. Virginie Dulong has contributed to this evolving field through studies involving enzymatic approaches to polysaccharide modification and characterization.[3]

Her academic contributions are situated at the intersection of chemistry, biomaterials science, and biotechnology. The integration of enzymatic methodologies into polymer functionalization has become increasingly important for reducing harsh chemical processing conditions and enabling more sustainable production pathways. Dulong’s work reflects these contemporary scientific priorities and demonstrates alignment with internationally recognized research themes in chemical sciences.[4]

Research Profile

Virginie Dulong is affiliated with Rouen Normandy University in France and has developed a research profile centered on biopolymer engineering and functional materials chemistry. According to indexed academic databases, her scholarly output includes more than sixty scientific documents with an established citation record and an h-index reflecting sustained research visibility within her field.[1]

Her work frequently examines the structural modification of polysaccharides through enzymatic and physicochemical techniques designed to improve biocompatibility, stability, and application-specific performance. Such investigations contribute to broader research efforts focused on biodegradable materials and advanced biomolecular systems used in pharmaceutical and biomedical technologies.[5]

  • Research emphasis on enzymatic modification of natural polymers.
  • Interdisciplinary collaboration within biomaterials and chemical sciences.
  • Contribution to environmentally sustainable material development.
  • Peer-reviewed publication activity in international scientific journals.

Research Contributions

Dulong’s research contributions are associated with the study of biomacromolecular systems and the controlled modification of polysaccharide materials. Her investigations have explored the influence of enzymatic reactions on polymer architecture and the resulting implications for material functionality in biomedical contexts.[4]

Several studies linked to her work address the optimization of polysaccharide-derived materials for applications such as drug encapsulation, tissue engineering scaffolds, and biocompatible coatings. These topics are relevant to ongoing international efforts toward sustainable and biologically responsive material systems.[5]

  1. Investigation of enzymatic pathways for polysaccharide functionalization.
  2. Development of biomaterials with enhanced physicochemical properties.
  3. Research related to biodegradable and sustainable polymer systems.
  4. Contribution to interdisciplinary biomaterials engineering research.

Publications

Virginie Dulong has authored and co-authored publications in peer-reviewed scientific journals covering biomaterials chemistry, polysaccharide engineering, and applied polymer science. Her publications contribute to the dissemination of research findings concerning environmentally compatible functional materials and biomedical polymer systems.[2]

  • Studies on enzymatic derivatization of polysaccharides for biomedical applications.
  • Research concerning biopolymer interactions and functional material properties.
  • Articles addressing sustainable methodologies in polymer chemistry.
  • Collaborative publications in interdisciplinary biomaterials research.

Representative scholarly outputs have been indexed in international citation databases, supporting visibility and accessibility within the broader scientific community.[1]

Research Impact

The research impact of Virginie Dulong is reflected through citation activity, publication metrics, and the interdisciplinary relevance of her scientific work. With more than 1,800 citations and an h-index of 25, her publications demonstrate measurable scholarly influence within biomaterials and chemical sciences.[1]

Her research has contributed to scientific understanding of enzyme-assisted polymer modification and the development of sustainable biomaterial systems. These themes align with broader international priorities in environmentally conscious chemistry and biomedical material innovation.[3]

Award Suitability

Virginie Dulong’s academic record indicates suitability for recognition within the framework of the International Chemical Scientist Awards. Her sustained publication activity, citation impact, and specialized contributions to enzymatic functionalization of polysaccharides represent meaningful engagement with contemporary challenges in chemical and biomaterials research.[4]

The interdisciplinary nature of her research, combined with applications relevant to biomedical technologies and sustainable chemistry, demonstrates alignment with award criteria emphasizing scientific innovation, research quality, and scholarly contribution to chemical sciences.[5]

Conclusion

Virginie Dulong has contributed to the advancement of enzymatic polysaccharide functionalization and biomaterials chemistry through interdisciplinary scientific research and peer-reviewed scholarship. Her publication record, citation profile, and research themes demonstrate continued engagement with sustainable and biomedical applications of chemical sciences. The recognition of such work through academic awards reflects the broader importance of environmentally compatible material innovation and collaborative scientific inquiry.[1]

References

  1. Dulong, V., et al. (2026). Antioxidant functionalization of pullulan with ferulic acid using enzymatic catalysis. Carbohydrate Polymers.

    https://www.sciencedirect.com/science/article/abs/pii/S014486172600319X

  2. Dulong, V., et al. (n.d.). A review of thermosensitive polysaccharide-based composite hydrogels for therapeutic applications.

    s. https://www.sciencedirect.com/science/article/abs/pii/S0141813025058477

  3. Dulong, V., et al. (n.d.). Functionalisation and behaviours of polysaccharides conjugated with phenolic compounds by oxidoreductase catalysis: A review.

    https://pubmed.ncbi.nlm.nih.gov/39561827/

  4. Dulong, V., et al. (2024). Polyelectrolyte complexes of chitosan and hyaluronic acid or carboxymethylpullulan and their aminoguaiacol derivatives with biological activities as potential drug delivery systems. Carbohydrate Polymers.

    https://www.sciencedirect.com/science/article/abs/pii/S0144861724005563

  5. Dulong, V., et al. (2024). Injectable polyoxazoline grafted hyaluronic acid thermoresponsive hydrogels for biomedical applications. Journal of Materials Chemistry B.

    https://www.researchgate.net/publication/378252070

Hong Wang | Polymer Chemistry | Research Excellence Award

Prof. Dr. Hong Wang | Polymer Chemistry | Research Excellence Award

Professor | Southwest University | China

Prof. Dr. Hong Wang is a Full Professor at the School of Chemistry and Chemical Engineering, Southwest University, and an internationally recognized chemical scientist specializing in advanced functional materials and poly(ionic liquid)s. He earned his doctoral degree in materials chemistry and has built a distinguished academic career through faculty leadership roles and international research engagements across leading global institutions. His professional experience includes directing nationally funded research projects, leading interdisciplinary collaborations, and translating fundamental research into industrial applications. His research focuses on porous polymer membranes, heteroatom-doped porous carbon materials, and supramolecular poly(ionic liquid) systems, with influential contributions published in top-tier journals and multiple patented innovations. He serves on the youth editorial board of a peer-reviewed journal and is an active member of professional chemical societies, reflecting his sustained service to the scientific community and recognition for research excellence. The candidate has achieved 9,444 citations with an h-index of 40 and an i10-index of 55, reflecting sustained scholarly impact and research excellence.

Citation Metrics (Google Scholar)

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Citations

9444

i10- index

55

h-index

40

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View Google Scholar ProfileView ORCID Profile

Featured Publications

Arul Pundi | Materials Chemistry | Chemical Scientist Award

Dr. Arul Pundi | Materials Chemistry | Chemical Scientist Award

Postdoctoral Research Fellow | Feng Chia University | Taiwan

Dr. Pundi Arul is an emerging early-career researcher at Feng Chia University, Taichung, Taiwan, contributing to advancing photocatalysis, polymer composites, and defect-engineered semiconductor materials. He has authored 14 peer-reviewed publications that have collectively received 328 citations, demonstrating the growing visibility and scientific influence of his work within the global materials science community, and his h-index of 10 underscores the impact of his research relative to his career stage. His primary research focus lies in the design, synthesis, and optimization of vacancy-engineered polymeric and graphitized carbon nitride photocatalysts, materials that hold significant promise for solar energy conversion, environmental remediation, and sustainable oxidation–reduction reactions. His recent comprehensive review on vacancy defects provides valuable mechanistic insights and offers strategic guidance for future photocatalyst development. Beyond defect engineering, Dr. Arul’s research interests encompass polymer science, nanomaterials, photocatalytic reaction pathways, and semiconductor modifications aimed at improving light absorption and charge-carrier dynamics. He frequently employs advanced characterization tools to probe structure–property relationships, contributing to more rational and efficient catalyst design. Collaboration is a key dimension of his scientific work, reflected in his co-authorship with 25 researchers across interdisciplinary and international projects, strengthening the depth and application potential of his studies in sustainable materials and green energy technologies. With research aligned toward global priorities in clean energy and environmental protection, Dr. Arul’s contributions support the development of next-generation photocatalytic systems capable of pollution mitigation and renewable energy harvesting. Through his expanding research trajectory, he continues to establish himself as a promising scientist in materials chemistry and photocatalytic science.

Profiles : Google Scholar | Scopus | ORCID

Featured Publications

Pundi, A., Chang, C. J., Chen, J., Hsieh, S. R., & Lee, M. C. (2021).A chiral carbazole based sensor for sequential “on-off-on” fluorescence detection of Fe³⁺ and tryptophan/histidine.
Sensors and Actuators B: Chemical, 328, 129084.Cited by: 95

Pundi, A., & Chang, C. J. (2022).Recent advances in synthesis, modification, characterization, and applications of carbon dots.Polymers, 14(11), 2153.Cited by: 67

Pundi, A., Chang, C. J., Chen, Y. S., Chen, J. K., Yeh, J. M., Zhuang, C. S., & Lee, M. C. (2021).An aniline trimer-based multifunctional sensor for colorimetric Fe³⁺, Cu²⁺ and Ag⁺ detection, and its complex for fluorescent sensing of L-tryptophan.Spectrochimica Acta Part A: Molecular and Biomolecular Spectroscopy, 247, 119075.Cited by: 34

Reddy, P. M., Hsieh, S. R., Lee, M. C., Chang, C. J., Pundi, A., Chen, Y. S., Lu, C. H., & others. (2019).Aniline trimer based chemical sensor for dual responsive detection of hazardous CN¯ ions and pH changes.Dyes and Pigments, 164, 327–334. Cited by: 27

Pundi, A., & Chang, C. J. (2023).Recent developments in the preparation, characterization, and applications of chemosensors for environmental pollutants detection.Journal of Environmental Chemical Engineering, 11(5), 110346.Cited by: 25

Dr. Pundi Arul’s research advances next-generation sensing and photocatalytic materials, enabling cleaner environments, sustainable technologies, and high-precision analytical tools. His innovations contribute directly to global efforts in environmental protection, renewable energy, and advanced material design.

Mainak Saha | Materials Chemistry | Best Researcher Award

Dr. Mainak Saha | Materials Chemistry | Best Researcher Award

Postdoctoral Researcher | National Institute for Materials Science | Japan

Dr. Mainak Saha is an emerging materials science researcher whose work demonstrates notable advancements in additive manufacturing, alloy development, and microstructural engineering, with a strong focus on designing high-performance metal matrix composites and understanding the intricate relationships between processing conditions, segregation behavior, and resulting mechanical properties. With a portfolio comprising 14 peer-reviewed publications and 86 citations, supported by an h-index of 5 , his contributions reflect a growing influence within the global materials research community. His studies frequently explore the development of lightweight, high-strength alloy systems, the thermodynamic and kinetic factors governing phase formation, and strategies for microstructural refinement that enhance strength, durability, and thermal stability in engineered metals. Notably, his research on segregation-induced microstructural refinement in FeMnAlC-TiB metal matrix composites produced via laser powder bed fusion  highlights his expertise in advanced manufacturing pathways and his ability to integrate metallurgical principles with cutting-edge fabrication technologies. Dr. Saha has collaborated with over 80 co-authors, illustrating his active participation in multidisciplinary research teams and underscoring his capacity to contribute significantly to collaborative scientific initiatives . His work intersects with critical industrial fields such as transportation, energy, and high-performance manufacturing, where the need for innovative, lightweight, corrosion-resistant, and structurally reliable materials is rapidly increasing. Through his research, he contributes to solving practical engineering challenges, improving manufacturing efficiency, and supporting global efforts toward sustainable, high-performance material solutions. His scientific output reflects both academic rigor and technological relevance, bridging fundamental metallurgical science with applied engineering innovation. As he continues to expand his research portfolio, Dr. Saha’s contributions are expected to further influence materials design methodologies, support the development of next-generation structural materials, and strengthen the broader scientific understanding of microstructure-property relationships in advanced alloys .

Profiles : Google Scholar | Scopus | ORCID 

Featured Publications

Saha, M., & Mallik, M. (2021). Additive manufacturing of ceramics and cermets: Present status and future perspectives. Sādhanā, 46(3), 162.
Cited by: 40

Gault, B., Saksena, A., Sauvage, X., Bagot, P., Aota, L. S., Arlt, J., Belkacemi, L. T., … Saha, M. (2024). Towards establishing best practice in the analysis of hydrogen and deuterium by atom probe tomography. Microscopy and Microanalysis, 30(6), 1205–1220.*
Cited by: 30

Gururaj, K., Saha, M., Maurya, S. K., Nama, R., Alankar, A., Ponnuchamy, M. B., … (2022). On the correlative microscopy analyses of nano-twinned domains in 2 mol% zirconia-alloyed yttrium tantalate thermal barrier material. Scripta Materialia, 212, 114584.
Cited by: 17

Saha, M., Ponnuchamy, M. B., Sadhasivam, M., Mahata, C., Vijayaragavan, G., … (2022). Revealing the localization of NiAl-type nano-scale B2 precipitates within the BCC phase of Ni-alloyed low-density FeMnAlC steel. JOM, 74(8), 3181–3190.
Cited by: 15

 Mallik, M., & Saha, M. (2021). Carbon-based nanocomposites: Processing, electronic properties and applications. In Carbon nanomaterial electronics: Devices and applications (pp. 97–122).
Cited by: 15

Dr. Mainak Saha’s research advances the development of high-performance alloys and additive manufacturing technologies, driving innovations that strengthen modern engineering, enhance industrial efficiency, and support global progress in sustainable, next-generation materials. His work continues to bridge fundamental science with real-world technological impact.

Md Lutfor Rahman | Polymer Chemistry | Editorial Board Member

Prof. Md Lutfor Rahman | Polymer Chemistry | Editorial Board Member

Professor | University Malaysia Sabah | Malaysia

Dr. Rahman is a distinguished multidisciplinary researcher whose work spans advanced materials, environmental remediation, polymer engineering, micro-machining, and biosensor development, with influential contributions recognized across the global scientific community. His highly cited research on heavy-metal removal using efficient adsorbents provides vital advancements toward sustainable water-treatment technologies, addressing critical global contamination challenges through novel adsorbent design and performance optimization . In precision engineering, his analytical three-dimensional cutting-force model for micro end-milling has become a referenced framework in both industrial and academic studies, offering essential insights into tool workpiece interactions and supporting improvements in micro-manufacturing systems . Dr. Rahman’s contributions to biosensor science include the immobilization of glucose oxidase on cellulose acetate–polymethylmethacrylate membranes, a significant development that enhances enzyme stability and functional reliability for biochemical detection platforms used in diagnostics and analytical applications . His extensive work in polymer modification and carbohydrate-based material science includes pioneering studies on graft copolymerization of methyl acrylate onto sago starch, expanding understanding of initiator behavior, polymer grafting mechanisms, and the resulting structural–functional relationships of modified biopolymers . Further strengthening his contributions to functional materials, his synthesis and characterization of poly(amidoxime) chelating resins derived from polyacrylonitrile-grafted starch highlights his expertise in designing selective ion-binding materials with applications in separation science, environmental cleanup, and resource recovery . Across his scholarly portfolio, Dr. Rahman demonstrates a commitment to methodological rigor, innovation, and societal relevance, consistently integrating theoretical insight with practical application to address critical scientific and technological challenges while fostering impactful interdisciplinary collaborations.

Profiles : Google Scholar

Featured Publications

1.  Zaimee, M. Z. A., Sarjadi, M. S., & Rahman, M. L. (2021). Heavy metals removal from water by efficient adsorbents. Water, 13(19), 2659.

2.  Zaman, M. T., Kumar, A. S., Rahman, M., & Sreeram, S. (2006). A three-dimensional analytical cutting force model for micro end milling operation. International Journal of Machine Tools and Manufacture,     46(3–4), 353–366.

3.  Rauf, S., Ihsan, A., Akhtar, K., Ghauri, M. A., Rahman, M., Anwar, M. A., & Khalid, A. M. (2006). Glucose oxidase immobilization on a novel cellulose acetate–polymethylmethacrylate membrane. Journal of   Biotechnology, 121(3), 351–360.*

4.  Rahman, L., Silong, S., Zin, W. M., Rahman, M. Z. A., Ahmad, M., & Haron, J. (2000). Graft copolymerization of methyl acrylate onto sago starch using ceric ammonium nitrate as an initiator. Journal of Applied   Polymer Science, 76(4), 516–523.*

5.  L. M. R., Sidik, S., Wan, Z., R. M. Z., Mansor, A., & Jelas, H. (2000). Preparation and characterization of poly(amidoxime) chelating resin from polyacrylonitrile grafted sago starch. European Polymer Journal,       36(10), 2105–2113.*

Dr. Rahman’s research delivers impactful advancements in environmental remediation, precision engineering, and functional materials, addressing critical global challenges through innovative and widely cited scientific contributions. His work continues to influence research directions and support sustainable technological progress worldwide.

 

Farzaneh Bayat | Polymer Chemistry | Best Researcher Award

Assoc. Prof. Dr. Farzaneh Bayat | Polymer Chemistry | Best Researcher Award

Associate Professor | Azarbaijan Shahid Madani University | Iran

Dr. Farzaneh Bayat is a distinguished researcher whose work has made significant contributions to materials chemistry and nanoscience, particularly in plasmonic nanomaterials, photocatalysis, and polymer-based nanocomposites. With 37 published documents, 248 citations, and an h-index of 10, her research record reflects consistent innovation and academic influence. Her recent studies emphasize the design and functionalization of nanostructured materials for applications in environmental remediation, sensing technologies, and energy-efficient catalysis. Notably, her 2025 publications in leading journals such as Microchemical Journal and Journal of Alloys and Compounds explore plasmonic core–shell nanoparticles and 2D semiconductor frameworks for enhanced photocatalytic and detection performance. Her investigations into polymer–nanocomposite systems and selenium-based optical materials reveal interdisciplinary expertise bridging chemistry, materials science, and nanotechnology. Dr. Bayat’s work stands out for its dual emphasis on fundamental understanding and practical solutions, addressing challenges in pollution control, sustainable materials, and nanostructure design. With collaborations involving over 70 co-authors globally, she actively promotes scientific exchange and multidisciplinary innovation. Through her pioneering contributions to plasmon-enhanced photocatalysis, hybrid nanocomposite engineering, and green nanotechnology, Dr. Bayat continues to advance material synthesis and characterization methods that support sustainability and technological progress. Her dedication to impactful research and innovation positions her as a recognized figure in functional materials and applied nanotechnology, shaping the future of global nanoscience

Dr. Farzaneh Bayat’s research bridges nanomaterials, photonics, and biosensing technologies, driving innovations in renewable energy, early disease detection, and environmental sustainability. Her work enhances global scientific understanding and fosters practical solutions that advance healthcare and clean energy industries.

Hassan Namazi | Polymer Chemistry | Best Paper Award

Prof. Hassan Namazi | Polymer Chemistry | Best Paper Award 

University of Tabriz | Iran

Professor Hassan Namazi is a leading scientist and academic renowned for his pioneering work in polymer chemistry, nanobiopolymers, and advanced drug delivery systems. His research focuses on the design, synthesis, and characterization of dendrimers, metal–organic frameworks (MOFs), and stimuli-responsive biopolymer nanocomposites for applications in cancer therapy, targeted drug delivery, and water remediation. With extensive experience in polymer synthesis, nanocomposite fabrication, spectroscopy, materials characterization, and computational modeling, he has developed innovative platforms for controlled and co-delivery of therapeutic agents, emphasizing biocompatibility, efficiency, and environmental sustainability. His contributions span fundamental research and practical applications, including photoluminescent polymers, glycodendrimers, and hybrid nanomaterials, establishing him as a key figure in advancing multifunctional biomaterials and nanotechnology-driven solutions. Prof. Namazi’s dedication to scientific excellence is reflected in his mentorship of emerging researchers, collaboration with interdisciplinary teams, and prolific publication record, demonstrating a consistent impact on both academic and applied chemical sciences. His work has earned national and international recognition, showcasing his leadership in developing eco-friendly polymers, functional nanocarriers, and stimuli-responsive drug delivery systems that address pressing biomedical and environmental challenges. Professor Namazi’s growing academic impact is evidenced by 10,627 citations, 211 documents, and an h-index of 63, reflecting his outstanding influence and leadership in the global materials science community.

Profiles : 
Google scholar | Scopus | ORCID | ResearchGate | LinkedIn

Featured Publications

Pooresmaeil, M., & Namazi, H. (2026). Iron oxide nanoparticles/polymer nanocomposite hydrogels. In Hydrogels for Wound Healing (pp. 327–363).

Karimi, S., & Namazi, H. (2025). Chitosan/dialdehyde starch coating onto l-tyrosine and curcumin intercalated layered double hydroxide for improved the therapeutic effects of breast cancer. International Journal of Biological Macromolecules, 147274.

Rasoulzadehzali, M., Namazi, H., Larsen, K. L., Mahoutforoush, A., … (2025). Engineering pH-sensitive CA/GO nanocomposite beads for dual-drug oral delivery: Improved therapeutic efficacy against breast cancer cells. Colloids and Surfaces A: Physicochemical and Engineering Aspects, 138081.

Jafari, H., & Namazi, H. (2025). κ-carrageenan coated magnetic hydroxypropyl methylcellulose/chitosan nanoparticles as a pH-sensitive nanocarrier for efficient methotrexate release. International Journal of Biological Macromolecules, 146750. Cited by 1

Karimi, S., & Namazi, H. (2025). Doxorubicin-curcumin-co loaded layered double hydroxide coated with dialdehyde lactose/ZnO via Schiff-base bonding for simultaneous and targeted delivery of drugs to …. Colloids and Surfaces A: Physicochemical and Engineering Aspects, 715, 136628. Cited by 5

Mariachiara Spennato | Polymer Chemistry | Women Researcher Award

Dr. Mariachiara Spennato | Polymer Chemistry | Women Researcher Award

Post-doc research fellow| University of Bologna | Italy

Dr. Mariachiara Spennato is an accomplished chemist specializing in sustainable materials and biocatalysis. She earned her PhD in Chemistry from the University of Trieste, where her doctoral research focused on the sustainable valorization of biomass using chemo-enzymatic approaches. Currently, she is a postdoctoral researcher at the University of Bologna, contributing to the H2020 PRESERVE project, which addresses enzymatic recycling and the development of advanced bio-based polymers. Her career reflects a strong commitment to green chemistry, biotechnology, and polymer science, with a clear emphasis on advancing circular bioeconomy solutions. Dr. Spennato has gained international exposure through her Short-Term Scientific Mission under the COST Action, where she applied computational approaches to enzyme characterization. She has authored peer-reviewed publications, engaged in interdisciplinary collaborations, and worked closely with industrial partners. With expertise spanning enzyme immobilization, polymer development, and plastic upcycling, she stands out as a promising young scientist dedicated to sustainable chemical innovation.

Professional Profiles

Dr. Spennato pursued her higher education in Chemistry with dedication and excellence. She completed her PhD in Chemistry at the University of Trieste, where she carried out innovative research on biomass valorization through chemo-enzymatic methods. Her doctoral studies provided her with a strong foundation in biocatalysis, enzyme immobilization, and the application of sustainable technologies in material science. During this period, she focused on integrating biotechnology and chemistry to develop processes that could reduce environmental impact while creating functional, renewable materials. Her training also included exposure to advanced analytical techniques and computational methods, preparing her to tackle complex scientific challenges. The interdisciplinary nature of her PhD research not only enhanced her technical expertise but also strengthened her ability to collaborate across fields such as polymer chemistry, enzymology, and bioengineering. This academic journey laid the groundwork for her current role in cutting-edge European projects centered on sustainable polymers and enzymatic recycling.

Experience 

Dr. Spennato’s professional experience reflects her strong engagement with both academic and applied research. She currently serves as a postdoctoral researcher at the University of Bologna, where she contributes to the H2020 PRESERVE project, focusing on enzymatic recycling and bio-based polymer development. Her prior experience includes participation in several European and national projects such as PRIN CARDIGAN, PRIME, and INTERFACE, which broadened her expertise in biocatalysis and functional material design. Through a COST-funded Short-Term Scientific Mission, she gained valuable international exposure, working on computational enzyme characterization in a collaborative setting. Across these roles, Dr. Spennato has actively published in peer-reviewed journals, fostered collaborations with industry, and applied her skills to practical sustainability challenges. Her experience demonstrates versatility, spanning laboratory-based enzymatic studies, polymer innovation, and computational analysis. She has consistently aligned her work with the principles of green chemistry, advancing solutions for recycling, upcycling, and sustainable material development in line with global needs.

Professional Development

Dr. Spennato has consistently advanced her professional development through active participation in international research collaborations, European projects, and interdisciplinary studies. As part of the H2020 PRESERVE initiative, she works alongside a diverse network of scientists and industrial partners, enhancing her understanding of large-scale, application-oriented research. Her involvement in the COST Action STSM further expanded her competencies in computational enzyme studies, enriching her experimental expertise with modeling approaches. By engaging with projects such as PRIN CARDIGAN, INTERFACE, and PRIME, she has diversified her research scope, moving from biomass valorization and enzyme immobilization to sustainable polymers and circular bioeconomy applications. She continues to strengthen her profile by contributing to publications, attending scientific meetings, and fostering collaborations across institutions like Politehnica University of Timișoara. This ongoing professional development illustrates her commitment to remaining at the forefront of sustainable chemistry, bridging academic research with industrial innovation, and building leadership capacity for future contributions.

Skills & Expertise

Dr. Spennato possesses a multidisciplinary skill set that spans chemistry, biotechnology, and material science. Her expertise lies in biocatalysis, particularly enzyme immobilization for biomass valorization and enzymatic recycling processes. She has developed proficiency in designing bio-based and biodegradable polymers, applying innovative approaches to plastic upcycling and circular bioeconomy solutions. Her research also incorporates supercritical extraction of bioactive compounds and the development of functional materials from renewable resources. Beyond experimental expertise, she has gained skills in computational enzyme characterization, broadening her ability to integrate theoretical and applied approaches. She is adept in handling advanced laboratory techniques, project-based collaborations, and interdisciplinary communication, enabling her to work effectively across academic and industrial environments. Additionally, her experience with European-funded projects has strengthened her project management, grant-writing, and teamwork capabilities. Together, these competencies highlight her as a versatile scientist who can address sustainability challenges through innovation, collaboration, and technical excellence in chemical sciences.

Resarch Focus

Dr. Spennato’s research focus centers on sustainable chemistry, with an emphasis on biocatalysis, polymer science, and circular bioeconomy. She investigates enzymatic processes for biomass valorization, exploring how immobilized enzymes on renewable supports can enhance efficiency and sustainability. A key area of her work is the design and development of bio-based and biodegradable polymers with advanced functionalities, suitable for replacing conventional plastics. Her contributions also include studies on enzymatic recycling and upcycling of synthetic polymers, offering solutions to global plastic waste challenges. Integrating biotechnology with material science, she develops functional materials from renewable resources while applying innovative extraction methods to recover bioactive compounds. She also utilizes computational enzyme characterization to complement her experimental research, enabling a deeper understanding of enzyme mechanisms. Overall, her focus lies in creating environmentally friendly processes and materials that align with the principles of green chemistry, promoting innovation in sustainable materials and polymer circularity.

Awards & Recognitions

Dr. Spennato has been recognized for her scientific achievements through nominations and active participation in prestigious award platforms. Most notably, she has been nominated for the International Chemical Scientist Awards under the category of Women Researchers, which highlights her contributions to sustainability, innovation, and advanced polymer research. Her achievements within European research frameworks, including participation in Horizon 2020 projects like PRESERVE and INTERFACE, as well as national projects such as PRIN CARDIGAN, further underscore her recognition within the scientific community. Her involvement in COST-funded missions also reflects her ability to secure competitive opportunities that advance both her research and professional profile. While still in the early stages of her career, her growing citation record, collaborative publications, and contributions to the field of biocatalysis and polymer sustainability position her as a rising scientist. These recognitions affirm her potential to shape the future of sustainable chemistry through impactful research and innovation.

Publication Top Notes

Dr. Mariachiara Spennato embodies the qualities of an emerging scientific leader and is an excellent candidate for the Women Researcher Award. Her research directly addresses pressing global issues such as plastic waste, bio-based materials, and sustainable processes. With her strong track record of interdisciplinary collaborations and impactful projects, she demonstrates both scientific merit and future leadership potential. Strengthening her international visibility, expanding her citation impact, and taking on leadership roles will further enhance her profile. Overall, she is a deserving nominee whose work reflects the award’s vision of recognizing outstanding women researchers driving innovation and sustainability in chemistry.