Hemangini Pravinbhai | Analytical Chemistry | Best Researcher Award

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Hemangini Pravinbhai | Analytical Chemistry | Best Researcher Award

Assistant Professor | Anand Pharmacy College | India

Ms. Hemangini Pravin Bhai is an emerging researcher in analytical and green pharmaceutical chemistry, steadily building a meaningful scientific presence with four publications, 4 citations, and an h-index of 1. Her work demonstrates a strong commitment to sustainability-driven analytical method development, optimization-based validation, and the integration of environmental metrics into pharmaceutical analysis. She skillfully applies advanced tools such as Box–Behnken experimental design, Analytical Quality by Design (AQbD), densitometric evaluation, and protein precipitation optimization to create robust, sensitive, reproducible, and eco-friendly analytical workflows. Her research portfolio highlights validated analytical methods for antihypertensive and antidiabetic drug combinations, reflecting versatility in handling complex formulations and biologically relevant matrices while ensuring regulatory-aligned precision and method selectivity. By incorporating greenness and whiteness assessment tools, she aligns her work with global trends promoting environmentally conscious analytical science. Looking ahead, her scientific impact can be further enhanced through interdisciplinary collaborations, involvement in international research networks, and the adoption of advanced platforms such as LC–HRMS, automation, microfluidic-based analysis, and AI-assisted chemometrics. With a strong technical foundation, growing recognition, and a clear vision for sustainable innovation, Ms. Hemangini Pravin Bhai demonstrates excellent potential to become a leading contributor to next-generation green pharmaceutical analytical science.

Profile : Google Scholar

Featured Publications

Patel, K., Macwan, P., Prajapati, A., Patel, H., & Parmar, R. (2023). Box‒Behnken design-assisted development of an eco-friendly thin-layer chromatography‒densitometry method for the quantification of amlodipine besylate, metoprolol succinate. JPC–Journal of Planar Chromatography–Modern TLC, 36(4), 265–277. Cited by 3

H. P. Patel, K. G. Pandtrg, D. P. Patel, J. R. Christian, & P. A. Shah. (2021). Box-Behnken design assisted protein precipitation optimization for simultaneous determination of metformin hydrochloride and alogliptin benzoate in plasma. Indian Journal of Pharmaceutical Sciences, 83(4), 785–793. Cited by 1

Patel, D., Patel, H., Thakkar, V., & Patel, K. (2025). Validated UPLC-MS/MS bioanalytical method for determination of palbociclib along with comparison of methods by greenness and whiteness evaluation. Microchemical Journal, 114587.

Hemangini Patel, T. S. B., Kalpana Patel, & Rajnikant Mardia. (2025). Analytical quality by design-based optimization of ecofriendly thin‑layer chromatography‒densitometry method for quantification of antihypertensive combination using complex. JPC – Journal of Planar Chromatography – Modern TLC, 38, 69–81.

Hemangini Patel, B. S., Prasha Patel, Kalpana Patel, Rajnikant Maradia, & Tejal Soni. (2025). Green metrics evaluation of analytical methodologies for amlodipine besylate, telmisartan and indapamide: A critical and comprehensive review. Journal of Chemical Health Risks, 15, 751–790.

Chang Soon Huh | Physical Chemistry | South Korea

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Assist. Prof. Dr. Chang Soon Huh | Physical Chemistry | South Korea

Assistant Professor | Dong-Eui University | South Korea

Dr. Chang-soon Huh is an emerging researcher recognized for his growing contributions to analytical chemistry, biosensing technologies, and nanomaterial-assisted detection systems. With 13 peer-reviewed publications, 50 citations, and an h-index of 3, he demonstrates a steadily rising academic influence supported by methodologically robust and application-driven studies. His work integrates fluorescence spectroscopy, biomolecular recognition, and engineered nanomaterials to create rapid, sensitive, and cost-efficient diagnostic platforms capable of addressing contemporary analytical challenges. One of his notable achievements includes the development of a fluorescent detection strategy for alkaline phosphatase based on gold nanoclusters and p-nitrophenyl phosphate, underscoring his ability to connect fundamental chemical principles with practical biosensing innovation. His research portfolio highlights strong interdisciplinary collaboration, engaging co-authors across materials science, biotechnology, and chemical engineering, which enriches the scientific depth and applicability of his studies. These collaborations support novel advancements in high-sensitivity detection systems, enabling precise monitoring of biochemical reactions and contributing to improved diagnostic and environmental assessment methodologies. Beyond quantitative publication metrics, his work demonstrates broader societal relevance, particularly in areas requiring early disease detection, quality assurance in bioprocessing, and real-time analysis of biochemical pathways. His commitment to scientific rigor, innovation, and problem-solving positions him as a promising researcher with expanding influence in the global analytical science community. Through consistent scholarly output and an expanding citation record, Dr. Huh continues to advance impactful research that aligns with emerging needs in biosensing, nanotechnology, and chemical diagnostics.

Profiles : Scopus | ResearchGate

Featured Publications

Kim, S.-H., Huh, C.-S., & Kim, M.-M. (2025). Rapid and sensitive detection of alkaline phosphatase based on fluorescent gold nanoclusters and p-nitrophenyl phosphate. Journal of Bioscience and Bioengineering. Citations: 1

Lee, S. E., & Huh, C.-S. (2025). Application of smartphones to measurements of reducing power related to antioxidant activity. Journal of Analytical Chemistry.

Kim, G. H., Huh, C.-S., & Kim, M.-M. (2024). Development of a smartphone-based method for measuring the antioxidant efficacy of commercial beverages. Current Analytical Chemistry.

Talapphet, N., & Huh, C.-S. (2024). A smartphone colorimetric development with TMB/H₂O₂/HRP reaction system for hydrogen peroxide detection and its applications. Journal of Analytical Chemistry. Citations: 10

Talapphet, N., & Huh, C.-S. (2024). Development of gold nanocluster complex for the detection of tumor necrosis factor-alpha based on immunoassay. Journal of Immunological Methods. Citations: 4

Chang-soon Huh’s work advances analytical science through innovative biosensing and nanomaterial-based detection systems that improve accuracy, speed, and accessibility in chemical and biochemical analysis. His research supports global innovation in health diagnostics and contributes to practical technologies that strengthen scientific, industrial, and societal advancements.

Shuang Guo | Spectroscopy | Best Researcher Award |

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Dr.Shuang Guo | Spectroscopy | Best Researcher Award |

Nanyang Institute of Technology | China

Dr. Shuang Guo is a dedicated materials scientist affiliated with the Nanyang Institute of Technology, Nanyang, China. With a growing international research presence, Dr. Guo has contributed significantly to the fields of chalcogenide phase-change materials, optical spectroscopy, and luminescent functional materials. His research primarily focuses on the structural, electronic, and photonic properties of advanced materials for next-generation data storage, energy conversion, and optoelectronic applications.Throughout his academic career, Dr. Guo has authored 28 scientific publications, which have collectively garnered over 509 citations, reflecting his active engagement and influence within the materials science community. His h-index of 11 underscores the sustained relevance and academic impact of his research contributions. Recent works, such as “Raman scattering spectroscopy study on chalcogenide phase-change materials” and “Insight into Cr³⁺-activated NIR phosphor with extremely high thermal stability for NIR LEDs” (2025), highlight his innovative approach to understanding phase transitions and optimizing photoluminescent behavior in complex material systems.Dr. Guo’s collaborative spirit is evident from his work with over 70 co-authors across interdisciplinary domains including physics, chemistry, and engineering. His studies bridge fundamental science with technological applications, offering insights crucial to the development of energy-efficient lighting, high-density data storage, and thermally stable luminescent devices. Beyond publications, his research contributes to advancing sustainable technologies and enhancing material performance under extreme conditions—key to progress in the semiconductor and optoelectronics industries. With a strong foundation in spectroscopic analysis and solid-state chemistry, Dr. Guo continues to drive scientific innovation through rigorous experimentation and collaborative inquiry, strengthening global research connections in the rapidly evolving landscape of materials science.

Profiles : Scopus | ORCID

Featured Publications

1. Guo, S., Wang, Y., Zhang, J., Wu, L., & Song, Z. (2025). Raman scattering spectroscopy study on chalcogenide phase-change materials. Materials Science & Engineering: B, 322, Article 118649.

2. Wang, Y., Liu, S., Guo, S., Zhou, J., … (2025). Insight into Cr³⁺-activated NIR phosphor with extremely high thermal stability for NIR LEDs. Journal of Alloys and Compounds. Cited by 4.

Dr. Shuang Guo’s research advances the understanding of phase-change and luminescent materials, driving innovations in energy-efficient lighting, high-density data storage, and next-generation optoelectronic devices. His work bridges fundamental spectroscopy and applied materials engineering, fostering scientific progress and technological sustainability on a global scale.

 

cristina fornacelli | Spectroscopy | Chemical Scientist Award

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Dr. cristina fornacelli | Spectroscopy | Chemical Scientist Award

Research fellow, CNR-IFAC, Italy.

Cristina Fornacelli, Ph.D., is an Italian researcher specializing in archaeometry and the scientific study of cultural heritage materials. She has built a distinguished career through her expertise in applying advanced spectroscopic, imaging, and mineralogical techniques to the analysis of ceramics, glass, manuscripts, and historical artifacts. Her work has contributed significantly to the understanding of artistic and archaeological materials, ranging from medieval pottery and stained glass to illuminated manuscripts. With research experiences spanning prestigious institutions in Italy and abroad—including Northwestern University (Chicago), Université Pierre et Marie Curie (Paris), and the Victoria & Albert Museum (London)—she has developed a strong international profile. Cristina has collaborated with leading experts on projects funded by major research programs, such as the ERC nEU-Med project, and has authored numerous publications in high-impact journals. Her research bridges science and cultural heritage, advancing preservation strategies for artworks and historical objects.

Professional Profile 

Cristina Fornacelli’s academic path reflects her deep dedication to cultural heritage science. She earned her B.Sc. in Sciences applied to Cultural Heritage Conservation and Restoration from the University of Florence, graduating magna cum laude with a thesis on the thermo-hygrometric behavior of wooden panels in paintings. She continued at the University of Florence, completing an M.Sc. in Science for Cultural Heritage with a thesis on medieval illuminated manuscripts, achieving a score of 107/110. She was awarded an International Ph.D. in Earth Sciences from the University of Pisa, with a dissertation on the technological developments in glass production during the Art Nouveau period, focused on Chini glassworks. Her doctoral work combined spectroscopy and material science to uncover innovative aspects of early 20th-century glassmaking. Through her academic training, Cristina acquired a robust multidisciplinary foundation, blending physics, chemistry, earth sciences, and art conservation into a cohesive expertise.

Experience 

Cristina Fornacelli has accumulated extensive professional experience in cultural heritage research, primarily at the University of Siena and IFAC-CNR. She has held multiple research fellowships and grants focusing on the archaeometric study of ceramics, glass, and manuscripts. Her work includes investigations of medieval pottery from Tuscany, Etruscan ceramics, early medieval stained glass, and purple codices, using spectroscopic and imaging methods. She contributed to the ERC nEU-Med project, analyzing pottery and ceramic circulation in Central Italy, and collaborated on studies of glass tesserae from Siena’s Cathedral and Palazzo Pubblico. Beyond academia, she has provided scientific consulting for conservation projects involving historic palaces, Roman kilns, and polychrome terracotta sculptures. Internationally, Cristina has conducted research stays in France, Portugal, the UK, and the USA, applying advanced techniques such as Raman spectroscopy, hyperspectral imaging, and LA-ICP-MS. Her experience demonstrates a balance of laboratory expertise, archaeological fieldwork, and applied conservation science.

Professional Development

Cristina Fornacelli has consistently enhanced her professional profile through advanced training, international research placements, and participation in specialized schools. She completed research stages at NU-ACCESS, Northwestern University (Chicago), focusing on hyperspectral imaging and LA-ICP-MS for stained glass, and at MONARIS Laboratories, Université Pierre et Marie Curie (Paris), where she deepened her expertise in Raman spectroscopy of colored glasses. At Vicarte Centre, Lisbon, she studied late 19th-century glass recipes, complementing her doctoral research. Earlier, she gained professional experience at the Victoria & Albert Museum (London), conducting chemical analyses of historical materials, and at Editech s.r.l. (Florence), applying multispectral diagnostics in cultural heritage. She also trained at the University of Florence’s Wood Technologies Department in panel painting conservation. In addition, Cristina has attended prestigious schools, including the 12th School on Synchrotron Radiation in Grado, Italy. Her continuous professional development reflects her commitment to integrating cutting-edge scientific methods with heritage conservation.

Skills & Expertise

Cristina Fornacelli possesses a broad technical skill set in archaeometry and cultural heritage diagnostics. She is highly proficient in spectroscopic methods such as Raman, UV-Vis-NIR, and Fiber Optic Reflectance Spectroscopy (FORS), as well as hyperspectral imaging for non-invasive analysis of artworks. Her expertise extends to X-ray fluorescence (XRF), SEM-EDX, TEM, ICP-AES, and XRD, allowing her to perform in-depth chemical and structural characterizations of historical materials. She is skilled in petrographic microscopy for mineralogical analysis and applies multivariate statistical methods (PCA, cluster analysis) to interpret complex datasets. Her IT proficiency includes MATLAB, Python, ImageJ, and specialized spectroscopy software. Cristina’s expertise lies in bridging laboratory science with field investigations, offering diagnostic solutions for ceramics, glass, pigments, manuscripts, and architectural materials. This blend of advanced analytical competence and contextual interpretation makes her a valuable contributor to both academic research and applied conservation projects across Europe and internationally.

Resarch Focus

Cristina Fornacelli’s research focuses on the scientific investigation of cultural heritage materials, combining spectroscopy, imaging, and archaeometric methods to study their composition, technology, and degradation. Her main interests include the analysis of ancient ceramics, from Etruscan and medieval pottery to early glazed ware, to reconstruct production techniques, trade, and circulation patterns. She also specializes in the study of glass materials, from Art Nouveau stained glass to Roman and medieval tesserae, with particular emphasis on the role of nanomaterials and transition metal complexes in coloring. Recently, she has advanced research on purple codices and illuminated manuscripts, exploring organic dyes and their interaction with environmental factors. Cristina’s approach integrates non-invasive diagnostics with laboratory-based analyses, aiming to develop sustainable strategies for conservation and preservation. Her multidisciplinary focus bridges archaeology, materials science, and conservation, contributing to a deeper understanding of cultural artifacts and their historical significance.

Awards & Recognitions

Throughout her career, Cristina Fornacelli has received several awards and distinctions recognizing her scientific achievements. She was awarded a grant to conduct research at Northwestern University (Chicago) and the Art Institute of Chicago (NU-ACCESS), where she applied state-of-the-art techniques to historical stained glass. She has also been selected to attend competitive international schools and conferences, including the 12th School on Synchrotron Radiation and the Congresso congiunto SIMP-AIV-SoGeI , both reserved for promising young scientists. Her research project on nanocrystalline phases in historical glass was accepted for advanced beamline analysis at the Argonne National Laboratory’s APS in Chicago, further highlighting the scientific relevance of her work. Cristina has also presented her findings at prestigious international conferences such as the International Symposium of Archaeometry (USA, Mexico, Portugal, Greece) and other global forums, reinforcing her reputation as an emerging leader in archaeometric research.

Publication Top Notes 

Cristina Fornacelli is a strong candidate for the Research for Chemical Scientist Award, particularly given her expertise in applying cutting-edge chemical and spectroscopic techniques to the study of cultural heritage materials. Her research blends chemistry, materials science, and cultural preservation, highlighting chemistry’s societal impact. To maximize competitiveness, she could emphasize citations, broader chemical applications, and leadership roles in future projects. Overall, her profile aligns well with the award’s mission of recognizing impactful and innovative contributions to chemical sciences.