Majid Dashti Barmaki | Engineering | Best Researcher Award

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Mr. Majid Dashti Barmaki | Engineering | Best Researcher Award

Water Resource Expert from Kharazmi University of Tehran, Iran

Majid Dashti Barmaki is a distinguished Iranian hydrogeologist with over 15 years of combined academic, industrial, and research experience. he has consistently contributed to the understanding and development of groundwater systems, karst hydrogeology, water quality assessment, and geospatial modeling. With advanced degrees in geology and hydrogeology from prestigious Iranian institutions such as Shiraz University and Kharazmi University, Dr. Barmaki has developed a rich body of work encompassing both theoretical insight and practical application. His scholarly output includes over 20 peer-reviewed international and national articles in journals from Springer, Taylor & Francis, Elsevier, Wiley, and the Geological Society of London. His work bridges geology, environmental science, and engineering, highlighting an interdisciplinary approach. He has also provided expert consultancy in water resources projects such as tunnel hydrogeology, aquifer balance, and land subsidence analysis. Through workshops, university lectures, and research mentoring, he has shaped many young professionals in Earth sciences. Dr. Barmaki’s continuous efforts to improve groundwater sustainability in arid regions, coupled with his active role in environmental planning, position him as a significant contributor to the hydrogeological field. His expertise is currently sought globally as he seeks opportunities to further his impact in academic and industrial research worldwide.

Professional Profile

Education

Majid Dashti Barmaki has an extensive academic background in Earth Sciences, with a focused specialization in hydrogeology. He earned his Bachelor’s degree in Geology from Shiraz University in 2006, where he laid the foundational knowledge of Earth systems. He pursued his Master of Science degree at Kharazmi University (formerly Tarbiat Moallem University) in Tehran from 2007 to 2010, focusing on Hydrogeology. His MSc thesis applied GIS and remote sensing techniques to assess karst groundwater potential in anticline structures, reflecting his early interest in integrating geospatial tools with hydrogeological modeling. Continuing at Kharazmi University, he obtained his Ph.D. in Karst Hydrogeology from 2011 to 2019. His doctoral research examined karst development factors affecting the Asmari Formation in the Zagros Mountains, one of Iran’s critical aquifer systems. His education is not only academically sound but also application-oriented, as demonstrated by his emphasis on GIS, statistical analysis, and environmental assessment in groundwater sciences. This strong academic trajectory, enriched with practical thesis topics, has prepared him for high-level consultancy, teaching, and research roles in both national and international hydrogeology-focused projects.

Professional Experience

Dr. Majid Dashti Barmaki brings over 15 years of diverse professional experience as a hydrogeologist, academic, and consultant. His career spans collaborations with leading Iranian consulting engineering companies such as Fannavaran Tarh-e-Jamea, Sahel Consulting Engineers, Dezab, Rayab, and others, where he specialized in water resource assessments for tunnel projects, land subsidence studies, and environmental monitoring. Notably, he served as a key hydrogeology expert for major tunnel excavation projects, evaluating groundwater inflow, hydrological impacts, and tunnel pressure loads. From 2012 to 2025, he also worked in national-level research and implementation projects related to groundwater sustainability, illegal well monitoring, and surface water drainage systems. His academic involvement includes teaching several university courses such as surveying, statistics for geology, map reading, and soil geography. He has also conducted workshops on GIS applications at Kharazmi University. His long-standing fieldwork expertise is evident in the detailed hydrogeological profiles he has generated and the policy-relevant environmental assessments he has contributed to. His leadership in multi-year projects showcases his capability to manage complex hydrological systems and deliver data-driven solutions. Through his multifaceted experience, Dr. Barmaki has effectively bridged academic theory with engineering practice in Iran’s most critical water management initiatives.

Research Interest

Dr. Majid Dashti Barmaki’s research interests lie at the intersection of groundwater hydrogeology, karst systems, environmental geochemistry, and spatial modeling. A central theme of his work is the assessment and management of karst aquifers, particularly within the Zagros region, one of Iran’s most hydrogeologically significant landscapes. He is deeply invested in understanding how geological structures influence groundwater flow and the vulnerability of aquifers to pollution and overexploitation. His research extends to groundwater quality evaluation using health risk assessments, pollution indices, and fuzzy logic systems. He has also explored fractal geometry and geostatistical kriging methods to identify groundwater potential zones. Another significant domain of his research includes the integration of remote sensing and GIS techniques with hydrogeological mapping to model water resources and assess land subsidence risks. His academic output reflects a multidisciplinary approach, combining environmental science, engineering, and computer-based modeling. His more recent studies have addressed environmental impacts from mining and tunneling operations, with a focus on sustainable water resource planning. Overall, Dr. Barmaki’s research aims to create actionable insights that support water security, climate resilience, and ecological sustainability in arid and semi-arid regions.

Research Skills

Dr. Majid Dashti Barmaki possesses a comprehensive set of research skills that span hydrogeology, environmental assessment, GIS-based analysis, and statistical modeling. His expertise includes groundwater flow modeling, aquifer characterization, and water quality analysis using advanced techniques such as fuzzy inference systems, fractal analysis, and risk indexing. He is proficient in using hydrogeological software like PhreeQC, Aq-Qa, Aquachem, RockWare, Aquifer Test, and GMS, which are essential for conducting water chemistry evaluations and aquifer simulations. His geospatial analysis skills are advanced, with capabilities in ArcGIS, ENVI, ILWIS, Global Mapper, and SASPlanet. He has employed multi-criteria decision-making models such as AHP and fuzzy logic to evaluate groundwater vulnerability and land subsidence. He is also experienced in laboratory hydrogeochemistry, data visualization, and the development of hydrogeological cross-sections. Beyond technical tools, he is adept at conducting fieldwork, designing surveys, managing databases, and preparing high-quality research reports and environmental assessments. His ability to combine statistical tools like SPSS with field-based insights allows for holistic environmental and geological interpretations. These diverse research competencies have enabled him to contribute to multi-institutional projects and publish in leading international journals in the geosciences and environmental engineering fields.

Awards and Honors

While Dr. Majid Dashti Barmaki’s professional profile does not list formal awards, his distinguished achievements and contributions reflect recognition through impactful roles and scholarly publications. His articles have appeared in prestigious journals such as Arabian Journal of Geosciences, Geocarto International, Water and Environment Journal, and Quarterly Journal of Engineering Geology and Hydrogeology, showcasing international peer-reviewed validation of his research. His invited participation in multiple national geological conferences in Iran—such as the Geological Society of Iran’s annual meetings—demonstrates academic endorsement and thought leadership. He has also led and contributed to high-stakes national and industrial projects under the Iranian Ministry of Energy and regional water authorities. These responsibilities entrusted to him reflect implicit recognition of his expertise in hydrogeology and environmental planning. Additionally, his teaching roles, workshops, and project supervision illustrate institutional trust in his academic capabilities. Although he may not have been conferred with traditional awards or honors, his consistent involvement in nationally significant water resource studies and publication in high-impact journals affirms his status as a respected researcher and professional in the field of hydrogeology.

Conclusion

Dr. Majid Dashti Barmaki stands out as a highly competent and impactful researcher in the field of hydrogeology. His academic journey—from undergraduate geology to a Ph.D. in karst hydrogeology—has been marked by a strong commitment to applied science, innovation, and sustainable groundwater management. With over a decade of professional engagement in both academic and industry environments, he has consistently addressed key water resource challenges in Iran. His research, which integrates field studies, GIS tools, statistical models, and advanced hydrogeological software, is practical, data-driven, and environmentally conscious. His publication record in leading journals and active participation in major national water and environmental projects reflect a deep expertise and a collaborative spirit. He has also contributed to knowledge transfer through teaching, workshops, and mentoring, proving himself as an educator and thought leader. As global water security becomes an increasing concern, professionals like Dr. Barmaki—who combine technical depth with societal relevance—are essential. His readiness to engage in international collaborations and continue his impactful work on a global scale makes him a deserving candidate for any recognition or opportunity aimed at honoring excellence in hydrogeological research and sustainable development.

Publications Top Notes

  1. Hydrogeochemical characteristics of cold and warm (hot) springs in the Mahallat geothermal region, Iran
    Authors: Majid Dashti Barmaki, Davar Ebrahimi, Zahra Yazdani Noori
    Journal: Quarterly Journal of Engineering Geology and Hydrogeology
    Year: 2025

  2. Land subsidence susceptibility mapping using Analytical Hierarchy Process (AHP) and Certain Factor (CF) models at Neyshabur plain, Iran
    Authors: Rezaei M., Yazdani Noori Z., Dashti Barmaki M.
    Journal: Geocarto International
    Year: 2020

  3. Use of fractal dimensions analysis in geographic information system and remote-sensing techniques to identify groundwater prospective zones in the Anar-Dashtegol anticline, Iran
    Authors: M. Dashti Barmaki, M. Rezaei, S. Madadi
    Journal: Carbonates and Evaporites
    Year: 2020

  4. Water chemistry and water quality pollution indices of heavy metals: a case study of Chahnimeh Water Reservoirs, Southeast of Iran
    Authors not fully listed
    Journal: International Journal of Energy and Water Resources
    Year: 2020

  5. Comparison of surface and interior karst development in Zagros Karst Aquifers, Southwest Iran
    Authors: Majid Dashti Barmaki
    Journal: Journal of Cave and Karst Studies
    Year: 2019

  6. Qanat, a technique appropriate for extracting water from hard rock terrains: the case study of Bilvar district, Kurdistan, Iran
    Author: Majid Dashti Barmaki
    Journal: International Journal of Hydrology Science and Technology
    Year: 2017

  7. Extracting of prospective groundwater potential zones using remote sensing data, GIS, and a probabilistic approach in Bojnourd basin, NE of Iran
    Authors: Majid Dashti Barmaki
    Journal: Arabian Journal of Geosciences
    Year: 2017

  8. Recognition of karst hydrology and water resources interaction in Kazerun Karstic Zones, South of Iran
    Authors: Majid Dashti Barmaki
    Journal: Arabian Journal of Geosciences
    Year: 2016

  9. Groundwater contamination analysis using Fuzzy Water Quality index (FWQI): Yazd province, Iran
    Authors: Majid Dashti Barmaki
    Journal: Geopersia
    Year: 2013

  10. Analysis of Groundwater Quality using Mamdani Fuzzy Inference System (MFIS) in Yazd province, Iran
    Authors: Majid Dashti Barmaki
    Journal: International Journal of Computer Applications
    Year: 2012

Hamed Pahlavani | Engineering | Best Researcher Award

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Dr. Hamed Pahlavani | Engineering | Best Researcher Award

CFD & Process Engineer from Dal Engineering Group, Turkey

Dr. Hamed Pahlavani is a distinguished Mechanical Engineer and Computational Fluid Dynamics (CFD) specialist with expertise spanning biomedical simulations, reactive multiphase flows, and energy system optimization. Currently serving as a Process & CFD Engineer at Dal Engineering Group in Istanbul, Turkey, he combines high-level academic research with real-world industrial applications. Dr. Pahlavani’s work integrates computational modeling of blood flow dynamics in cerebral aneurysms with fluid-structure interaction (FSI) techniques, as well as combustion modeling for alternative fuels in large-scale energy systems. With a robust foundation in OpenFOAM and other numerical tools, he has developed custom solvers and predictive models, making significant contributions to cardiovascular modeling, energy optimization, and environmental engineering. His innovative approaches and research outputs are featured in several peer-reviewed journals. In addition to his scientific contributions, he has been an active participant in industry-sponsored and TÜBİTAK-funded projects. His cross-disciplinary knowledge, proficiency in simulation platforms, and commitment to solving critical engineering challenges demonstrate both academic and practical excellence. Fluent in English, Turkish, and Persian, Dr. Pahlavani has also presented his work internationally, earning recognition within both academia and industry. His combination of deep technical acumen, innovative thinking, and collaborative mindset makes him a standout candidate for the Best Researcher Award.

Professional Profile

Education

Dr. Hamed Pahlavani holds a Ph.D. in Mechanical Engineering from Istanbul Technical University, Turkey, awarded in January 2022. His doctoral dissertation, titled “Modeling of Two-Phase Blood Flow and Fluid-Structure Interactions in Cerebral Aneurysms”, focused on applying advanced CFD techniques and FSI to model blood rheology and arterial wall deformation. He utilized state-of-the-art simulation tools such as OpenFOAM, CALCULIX, and preCICE, running high-performance computing (HPC) environments to address complex, patient-specific geometries. Prior to this, he completed a Master of Science in Mechanical Engineering from the same institution in 2015. His M.Sc. thesis involved the design and simulation of a refrigerator cabinet based on the solidification process of polyurethane foam, emphasizing multiphase reactive flows and chemical kinetics using ANSYS Fluent. Dr. Pahlavani began his academic journey with a Bachelor of Science degree from Azad University of Khoy, Iran, in 2012, laying a strong foundation in classical mechanical engineering principles. His educational background reflects a consistent trajectory of excellence, with progressive specialization in simulation-based design, energy systems, and biomedical engineering. The combination of solid academic preparation and advanced computational modeling skills has positioned him to tackle both fundamental and applied engineering problems across multiple sectors.

Professional Experience

Dr. Hamed Pahlavani has accumulated valuable professional experience across both industrial and academic domains. Since November 2023, he has been working as a Process & CFD Engineer at Dal Engineering Group in Istanbul, where he leads simulation projects focused on the combustion of alternative fuels and calcination processes in cement calciners. He has applied OpenFOAM’s Euler–Lagrange framework to model solid fuel behavior, reaction kinetics, and pollutant formation. He also performs 1D heat and mass balance modeling to support plant optimization efforts and has participated in field measurements to validate simulation outputs with real-world data. Prior to this, from October 2021 to May 2023, Dr. Pahlavani served as a CFD, Combustion, and Thermal Systems Engineer at Turaş GAS A.Ş., where he focused on improving domestic gas burner performance using CFD tools, achieving notable reductions in emissions and increases in thermal efficiency. His earlier engagements included roles in academic projects sponsored by TÜBİTAK and the Turkish Ministry of Industry. These roles required him to blend research and development with engineering applications, often collaborating with multidisciplinary teams. His professional record illustrates his capacity to translate complex simulation data into actionable outcomes for environmental and industrial improvements.

Research Interests

Dr. Pahlavani’s research interests lie at the intersection of computational modeling, thermal-fluid sciences, and biomedical engineering. A central theme in his research is Computational Fluid Dynamics (CFD), particularly applied to multiphase and turbulent reactive flows, combustion systems, and fluid-structure interactions (FSI). His work on alternative fuel combustion explores the behavior of solid fuels such as TDF, rubber, SRF, and petcoke, focusing on processes like drying, devolatilization, and char oxidation using custom reaction models. In the biomedical field, he specializes in non-Newtonian blood flow modeling and its interactions with arterial structures, enabling in-depth investigations of cerebral aneurysms, thrombosis risks, and blood rheology using advanced simulation techniques. Additional interests include optimization of energy systems, gas-solid interactions, phase change modeling, and biomedical flow simulations in patient-specific geometries. His focus is both analytical and practical, using computational methods to simulate real-world behavior in mechanical systems, energy conversion units, and biological tissues. The cross-domain applicability of his research makes it highly relevant to healthcare innovation, renewable energy development, and environmental sustainability. Dr. Pahlavani’s ongoing work continues to address critical challenges in these fields through innovative simulation-based methodologies.

Research Skills

Dr. Pahlavani possesses an extensive array of research and technical skills that position him at the forefront of simulation-based engineering. He is highly proficient in OpenFOAM, an open-source CFD platform where he develops and customizes solvers for turbulent and multiphase flows, including complex chemical reactions and phase transitions. He has utilized CALCULIX for structural analysis and preCICE for coupling fluid and solid domains, enabling sophisticated fluid-structure interaction (FSI) simulations. His programming capabilities include C++ and Python, allowing him to tailor numerical models and automate simulation workflows. Additionally, he is experienced with ANSYS Fluent, ICEM CFD, Tecplot, Paraview, and CAD tools such as CATIA v5 and SolidWorks. These tools have been critical in simulating complex systems ranging from domestic gas burners to cement calciners and blood flow in cerebral arteries. His ability to integrate 1D process modeling with full-scale CFD simulations enhances his capacity for system-wide energy optimization and emissions reduction. Dr. Pahlavani also possesses strong data validation skills, conducting on-site measurements to ensure simulation accuracy. His blend of coding expertise, engineering judgment, and validation techniques reflects a well-rounded research skill set with high translational value.

Awards and Honors

Dr. Hamed Pahlavani has received notable awards and honors in recognition of his contributions to computational modeling and engineering innovation. He served as the Principal Researcher for a TÜBİTAK-funded project titled “Computational Modelling of Deep Vein Thrombosis” (Project No. 117M430), which involved simulating thrombus formation using CFD-FSI coupling techniques in patient-specific geometries. This project not only demonstrated his academic leadership but also showcased the medical relevance of his research. He also contributed significantly to an industry-sponsored project titled “CFD Modeling of Reaction and Injection Molding of Polyurethane Foam in Refrigerators”, supported by the Ministry of Industry and Arçelik Inc. (Project No. 01213.STZ.2012-1). These honors reflect his capacity to attract funding and execute impactful projects that bridge science and industry. In addition to research awards, Dr. Pahlavani’s technical papers and conference presentations have received recognition at scientific meetings, further validating the quality and relevance of his work. His demonstrated success in securing competitive funding, combined with strong industry collaboration, underlines his innovative approach to solving engineering challenges and his potential for continued leadership in computational mechanics.

Conclusion

In conclusion, Dr. Hamed Pahlavani exemplifies a modern, research-driven mechanical engineer with an exceptional portfolio that blends academic rigor with industrial relevance. His contributions span diverse domains, from biomedical flow simulations to advanced combustion modeling and energy system optimization. With a Ph.D. from Istanbul Technical University, multiple peer-reviewed publications, and hands-on experience in both experimental validation and computational design, he brings a rare depth of understanding to complex fluid dynamics and multiphysics systems. His leadership in TÜBİTAK- and industry-funded projects, combined with technical mastery of tools such as OpenFOAM, preCICE, and CALCULIX, further reinforces his excellence in research execution and impact delivery. Dr. Pahlavani’s work not only pushes the frontiers of CFD and biomedical engineering but also contributes significantly to sustainability efforts by improving combustion efficiency and reducing emissions in industrial systems. His multilingual proficiency and international collaborations position him as a globally relevant researcher capable of addressing multidisciplinary challenges. Based on his accomplishments and forward-looking research agenda, Dr. Pahlavani is an outstanding candidate for the Best Researcher Award. His innovative thinking, problem-solving skills, and dedication to societal advancement through engineering research mark him as a leader of the future.

Publications Top Notes

  1. Effect of red blood cell concentration on the blood flow in patient-specific aneurysms
    2025 | Pahlavani, H.; Ozdemir, I.B.
  2. Interactions between non-Newtonian blood flow and deformable walls of a patient-specific aneurysm
    2025 | H. Pahlavani; I.B. Ozdemir
  3. Neural network predictive models to determine the effect of blood composition on the patient-specific aneurysm
    2023 | Quadros, J.D.; Pahlavani, H.; Ozdemir, I.B.; Mogul, Y.I.
  4. CFD models for aneurysm analyses and their use in identifying thrombosis formation and risk assessment
    2022 | Pahlavani, H.; Ozdemir, I.B.; Yildirim, D.
  5. Effects of forebody geometry on side forces on a cylindrical afterbody at high angles of attack
    2020 | Serdaroglu Timucin; Pahlavani Hamed; Ozdemir I. Bedii
  6. Effects of air vents on the flow of reacting polyurethane foam in a refrigerator cavity
    2018 | Özdemir, İ.B.; Pahlavani, H.

Snekhalatha Umapathy | Engineering | Excellence in Research Award

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Prof. Dr. Snekhalatha Umapathy | Engineering | Excellence in Research Award

Professor and Head from SRM Institute of Science and Technology, India

Dr. Snekhalatha Umapathy is a distinguished Professor in the Department of Biomedical Engineering at SRM Institute of Science and Technology. With a research career spanning over a decade, she has made substantial contributions to biomedical instrumentation, biosensors, medical image and signal processing, and artificial intelligence applications in healthcare. She has authored over 145 publications, including 55 in SCI-indexed journals and 54 in the Web of Science, showcasing her consistent academic productivity. Her research is highly interdisciplinary, integrating engineering, medicine, and advanced computing techniques. Dr. Umapathy’s work has led to the granting of five patents and the publication of three more, underscoring her commitment to innovation and translational research. She has successfully supervised six Ph.D. scholars and continues to mentor three more, indicating her dedication to academic leadership and student development. Her most recent studies focus on quantum machine learning and wearable biosensors, areas of increasing importance in personalized medicine. Through her extensive involvement in international conferences, book publications, and impactful journals, she maintains a strong academic presence. Overall, Dr. Umapathy stands out as a highly accomplished researcher whose work bridges fundamental research and clinical application, positioning her as a leading expert in the biomedical engineering domain.

Professional Profile

Education

Dr. Snekhalatha Umapathy’s academic background is rooted in a strong foundation in engineering and interdisciplinary science. She pursued her higher education in fields that aligned closely with biomedical innovation, integrating elements of electronics, instrumentation, and life sciences. Although specific degree titles and institutions are not listed here, her progression to a professorial role and active research leadership indicates the successful completion of undergraduate and postgraduate degrees in relevant engineering disciplines, followed by a doctorate (Ph.D.) in a field closely related to biomedical engineering. Her educational pathway has allowed her to explore the integration of engineering principles with human physiology, medical diagnostics, and therapeutic technologies. Through rigorous training and advanced coursework, she has developed specialized expertise in areas such as biosensor technology, medical imaging, signal processing, and artificial intelligence applications in medicine. This academic training has been critical in enabling her to publish in high-impact journals, supervise doctoral research, and secure patents in the biomedical technology space. Her educational journey reflects both depth and diversity, providing her with the tools necessary to contribute meaningfully to multidisciplinary research and academic mentorship within the global biomedical engineering community.

Professional Experience

Dr. Snekhalatha Umapathy currently serves as a Professor in the Department of Biomedical Engineering at SRM Institute of Science and Technology, a role that reflects her vast academic experience and leadership capabilities. Over the years, she has played a pivotal role in driving research innovation, mentoring students, and establishing industry-academic linkages within the university setting. Her responsibilities include supervising doctoral scholars, delivering advanced courses in biomedical instrumentation and AI in healthcare, and leading funded research initiatives. With more than 145 publications and several patents to her name, she has consistently demonstrated a capacity to translate academic inquiry into practical, real-world applications. In addition to her research and teaching duties, she actively participates in organizing conferences, delivering keynote addresses, and collaborating with interdisciplinary teams for technological development. Her professional experience extends beyond academia, encompassing collaborative projects with clinicians, engineers, and researchers to design medical devices and diagnostic systems. Dr. Umapathy’s work ethic, combined with her technical insight and administrative contributions, positions her as a highly effective academic leader. Her commitment to fostering innovation and knowledge transfer has not only elevated the research profile of her department but has also contributed significantly to the broader biomedical engineering landscape in India.

Research Interests

Dr. Snekhalatha Umapathy’s research interests lie at the intersection of engineering, healthcare, and computational science. Her primary focus areas include biosensors, point-of-care diagnostic devices, biomedical signal and image processing, and the integration of deep learning and quantum machine learning techniques into healthcare applications. She is particularly interested in developing non-invasive diagnostic tools and wearable biosensors that can monitor biomarkers for diseases such as diabetes, chronic kidney disease, and Alzheimer’s. Her work in medical image processing includes automated classification and detection using AI, contributing to early diagnosis and improved patient outcomes. Dr. Umapathy also explores the use of novel materials, such as graphene-based sensors, in creating affordable and scalable healthcare solutions. A forward-thinking researcher, she is actively investigating the potential of quantum machine learning algorithms to enhance the accuracy and efficiency of medical diagnostic systems. By bridging the gap between technology development and clinical utility, her research addresses pressing global health challenges while contributing to the scientific advancement of biomedical instrumentation and artificial intelligence. Her interdisciplinary approach allows for innovative problem-solving and has led to significant academic recognition, industry relevance, and translational impact.

Research Skills

Dr. Snekhalatha Umapathy possesses a rich array of research skills that position her as a leader in the field of biomedical engineering. She is highly skilled in advanced signal and image processing techniques, enabling her to extract meaningful data from complex physiological signals and imaging modalities. Her expertise in deep learning, convolutional neural networks (CNNs), and machine learning allows her to develop predictive models for disease diagnosis, particularly in applications such as Alzheimer’s detection and rheumatoid arthritis classification. She is also proficient in working with quantum computing frameworks to apply quantum machine learning techniques, which is a highly specialized and emerging area in medical diagnostics. In the laboratory, she demonstrates strong capabilities in biosensor design, materials characterization, and experimental modeling, especially in breath analysis using graphene-based sensor arrays. Dr. Umapathy’s analytical and programming skills extend to MATLAB, Python, and simulation tools used in biomedical signal modeling. In addition, she is experienced in writing grant proposals, publishing scholarly articles, and securing intellectual property rights through patents. Her collaborative approach and project management skills further enhance her ability to lead multidisciplinary teams and contribute meaningfully to high-impact, solution-oriented research.

Awards and Honors

Dr. Snekhalatha Umapathy has been recognized for her academic and research contributions through several awards and honors, although the specific names of the awards are not listed in the provided details. The granting of five patents and the publication of three more reflects her recognition as an innovator in biomedical technology. Her consistent presence in high-impact journals such as Scientific Reports, Analytical Chemistry, and Biomedical Signal Processing and Control suggests acknowledgment by the global academic community. Additionally, her role as a Ph.D. supervisor and her involvement in international conferences and book publications are indicators of her esteemed position in the academic world. It is highly likely that she has received internal and external recognition from academic institutions, professional societies, and funding agencies for her work. Dr. Umapathy’s interdisciplinary research combining AI, biosensing, and biomedical instrumentation places her at the forefront of emerging health technologies. These honors not only validate her research excellence but also serve as an inspiration for future scholars in the field. Her achievements in innovation, publication, and mentoring further solidify her reputation as a leading academic figure in biomedical engineering.

Conclusion

Dr. Snekhalatha Umapathy exemplifies excellence in biomedical engineering through her innovative research, prolific publication record, and dedication to academic mentorship. Her work spans crucial areas such as biosensor development, AI-driven diagnostics, and quantum machine learning, addressing some of the most pressing healthcare challenges of our time. With a robust portfolio of SCI-indexed publications, multiple patents, and successful Ph.D. supervisions, she embodies the qualities of a high-impact researcher. Her collaborative and interdisciplinary approach ensures her work remains both scientifically rigorous and practically relevant. Dr. Umapathy’s research not only advances academic knowledge but also holds tangible benefits for clinical practice and public health. She has established herself as a thought leader, mentor, and innovator who is shaping the future of biomedical research and education. As the healthcare landscape evolves toward personalized and technology-driven care, her contributions are poised to play an influential role. Her candidacy for any prestigious research award, including the Excellence in Research Award, is not only well justified but highly recommended. Her continued dedication to innovation, education, and societal impact makes her a beacon of research excellence in India and beyond.

Publications Top Notes

  • Title: Artificial intelligence-based automated detection of rheumatoid arthritis

  • Title: Computer-aided diagnosis of early-stage Retinopathy of Prematurity in neonatal fundus images using artificial intelligence
    Journal: Biomedical Physics and Engineering Express
    Year: 2025

  • Title: CNN Transformer for the Automated Detection of Rheumatoid Arthritis in Hand Thermal Images
    Citations: 1

  • Title: Artificial intelligence based real time colorectal cancer screening study: Polyp segmentation and classification using multi-house database
    Journal: Biomedical Signal Processing and Control
    Year: 2025
    Citations: 15

  • Title: Corrigendum: Early detection of Alzheimer’s disease in structural and functional MRI
    Journal: Frontiers in Medicine
    Year: 2024

  • Title: Design and Development of Portable Body Composition Analyzer for Children
    Journal: Diagnostics
    Year: 2024

  • Title: ADVANCING COLORECTAL POLYP DETECTION: AN AUTOMATED SEGMENTATION APPROACH WITH COLRECTSEG-UNET
    Authors: [Not specified]
    Journal: Biomedical Engineering Applications Basis and Communications
    Year: 2024
    Citations: 4

  • Title: Tongue image fusion and analysis of thermal and visible images in diabetes mellitus using machine learning techniques
    Journal: Scientific Reports
    Year: 2024
    Citations: 8

  • Title: Exploring Reduction Techniques for Graphene Oxide: A Comparative Study of Thermal and Chemical Methods
    Journal: Chemistry Select
    Year: 2024
    Citations: 1

  • Title: RA-XTNet: A Novel CNN Model to Predict Rheumatoid Arthritis from Hand Radiographs and Thermal Images: A Comparison with CNN Transformer and Quantum Computing
    Journal: Diagnostics
    Year: 2024
    Citations: 4

Shaofeng Zheng | Engineering | Best Researcher Award

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Mr. Shaofeng Zheng | Engineering | Best Researcher Award

Zheng Shaofeng is a seasoned Senior Engineer and currently serves as the Technical Head of the Laboratory at the Huangpu Customs Technology Center. With a longstanding dedication to the inspection and testing of import and export commodities, he has earned recognition for his technical expertise and leadership in national and international standardization. He is a registered expert and committee member in various prominent technical groups, including the Standardization Technical Committee for Fire Tests of Electrical and Electronic Products (SAC/TC 300), IEC/TC 89, and ISO TR 8124-9:2018. Zheng has actively contributed to the development and revision of 14 national standards, reflecting his deep influence on regulatory practices in China. His research efforts are highly interdisciplinary, spanning battery lifecycle traceability, environmental safety, and commodity quality evaluation. Over the years, he has published more than 20 academic papers in SCI, EI-indexed journals, and core Chinese journals, further establishing his academic presence. Zheng also holds over 10 patents and has received several prestigious awards recognizing his contributions to scientific advancement and technological innovation. He is a vital figure in connecting scientific inquiry with real-world application, particularly in energy storage systems, trade regulations, and product safety.

Professional Profile

Education

While specific institutional affiliations are not detailed, Zheng Shaofeng’s educational background is evidently rooted in a strong foundation in engineering and applied sciences. His advanced knowledge and professional roles suggest that he has undergone formal academic training in materials science, chemical engineering, environmental technology, or a closely related field. The technical nature of his research and his ability to lead high-level scientific projects imply both undergraduate and postgraduate education, likely supplemented with ongoing professional development. His qualifications are further validated by his active participation in national standardization committees and involvement in high-level research and policy formulation projects. Moreover, his standing as a senior engineer and technical expert in various regulatory and technological domains shows a continued commitment to learning and applying new knowledge in dynamic and complex environments. Though the exact degrees and institutions remain unspecified, Zheng’s career achievements and affiliations with multiple scientific and governmental bodies reflect his strong academic grounding and ability to translate education into impactful practice.

Professional Experience

Zheng Shaofeng currently serves as the Technical Head of the Laboratory at the Huangpu Customs Technology Center, where he has played a central role in the development and implementation of inspection protocols for import and export commodities. With extensive experience in applied laboratory science, regulatory compliance, and technical assessment, he is responsible for managing large-scale testing procedures that align with national and international standards. His professional experience also includes significant participation in governmental science and technology evaluations as an expert for the Guangdong Province Department of Science and Technology and as a technical trade expert for the WTO/TBT Notification and Research Center. Zheng’s leadership spans collaborative, interdisciplinary projects on battery lifecycle traceability, carbon footprint analysis, and product safety evaluation. His input in these areas helps shape national policy and contributes to global standards. His role involves hands-on testing, risk assessment, standardization, and training of personnel, making him both a technical and administrative leader in his organization. By bridging the gap between research and regulation, he ensures that emerging technologies and products entering Chinese markets comply with the highest safety and environmental standards.

Research Interests

Zheng Shaofeng’s research interests lie at the intersection of environmental technology, energy systems, regulatory science, and materials testing. He focuses particularly on risk monitoring, traceability, and lifecycle assessment of energy storage systems, especially imported and exported new energy vehicle power batteries. His work aligns with global sustainability goals, as it emphasizes full lifecycle carbon footprint analysis and the residual value assessment of second-life batteries. He is also deeply involved in safety testing protocols and fire hazard assessments for electronic and electrical commodities. Zheng’s involvement in international technical committees such as IEC/TC 89 and ISO TR 8124-9:2018 reflects a strong interest in standardization and global regulatory harmonization. His interdisciplinary research contributes not only to scientific innovation but also to public safety, international trade policies, and environmental protection. Through his work, Zheng is addressing some of the most pressing challenges in product safety and green technology—ensuring safe, traceable, and sustainable product development and deployment. His focus on real-world applicability gives his research a strategic relevance that extends beyond academia into the realms of industry and policy.

Research Skills

Zheng Shaofeng brings a rich array of technical and analytical skills to his research endeavors. He is proficient in advanced laboratory testing methods for electronic and electrical products, with a particular emphasis on fire hazard assessments and quality inspection protocols. His research methodology incorporates lifecycle analysis, carbon footprint modeling, and residual value assessment—tools that are critical for evaluating the sustainability and safety of new energy vehicle batteries. He has extensive experience in managing complex research projects at provincial and ministerial levels, demonstrating his capabilities in project design, data interpretation, and results dissemination. Zheng’s skills also extend to technical writing, as evidenced by his publication record in high-impact journals and his role in developing national standards. Furthermore, his patent portfolio highlights his ability to innovate and solve real-world technical problems. In regulatory science, he has a deep understanding of WTO/TBT compliance, international standardization frameworks, and risk-based monitoring approaches. His combined laboratory expertise, policy knowledge, and interdisciplinary communication skills position him as a multifaceted researcher who seamlessly integrates technical proficiency with practical application.

Awards and Honors

Zheng Shaofeng has received multiple awards and honors recognizing his significant contributions to scientific research and technological development. His projects have been honored with the Third Prize of the Science and Technology Award by the China General Chamber of Commerce, the Third Prize of the Science and Technology Progress Award by the China Federation of Logistics & Purchasing, and commendations from the Guangdong Quality Development Promotion Association and the Guangdong Measurement, Control & Instrumentation Society. These accolades reflect the impactful nature of his work in commodity inspection, safety evaluation, and battery lifecycle analysis. Additionally, his contributions to the development and revision of 14 national standards have earned him respect and authority in China’s regulatory ecosystem. His membership in prestigious technical committees and expert groups—including IEC/TC 89 and SAC/TC 300—further illustrates the national and international recognition of his expertise. The combination of awards and leadership roles underlines his reputation as a leading expert in environmental testing and regulatory compliance, emphasizing both his technical contributions and his strategic influence in shaping policy and standards.

Conclusion

In conclusion, Zheng Shaofeng exemplifies the qualities of a leading researcher whose work bridges scientific innovation, regulatory compliance, and public safety. Through his leadership in laboratory testing, participation in national and international standardization efforts, and direction of cutting-edge projects on battery traceability and carbon monitoring, he has significantly contributed to the field of environmental technology and product safety. His technical acumen is matched by his strategic foresight, making his research not only relevant but also transformative in its application. With more than 20 research publications, 10+ patents, and multiple national awards, Zheng’s achievements reflect a sustained commitment to excellence, innovation, and service. He stands out as a role model for integrating scientific rigor with real-world impact. While there is room for deeper international collaboration and broader global publication presence, Zheng’s current trajectory positions him strongly within both national and international research communities. His multifaceted expertise and proven results make him a highly deserving candidate for the Best Researcher Award, and his continued work will undoubtedly yield further advancements in science, technology, and policy.

Publications Top Notes

  1. Plastic Reference Material (PRM) Combined With Partial Least Square (PLS) in Laser-Induced Breakdown Spectroscopy (LIBS) in the Field of Quantitative Elemental Analysis
  2. Authors: Wang, Bin Zheng, Shaofeng Gan, Jiulin Yang, Zhongmin Song, Wuyuan
  3. Journal: Guang Pu Xue Yu Guang Pu Fen Xi (Spectroscopy and Spectral Analysis)
  4. Publication Year: 2023

Basem KESHTA | Chemical Engineering | Best Researcher Award

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Dr. Basem KESHTA | Chemical Engineering | Best Researcher Award

Postdoctoral Fellow from Zhejiang Normal University, China 

Dr. Basem E. Keshta is a dedicated researcher in the field of chemistry, currently affiliated with the Department of Computational Chemistry at CDBIO in Romania. His work primarily focuses on computational approaches to chemical research, contributing to advancements in the field. Dr. Keshta has collaborated on significant publications, including a study on wet surface tissue adhesive hydrogels for wound treatment, published in the European Polymer Journal in 2024 . His research interests are centered around chemistry, and he has been recognized as a global expert from Romania in this domain.

Professional Profile

Education

Specific details regarding Dr. Keshta’s educational background are not publicly available. However, his current role in computational chemistry suggests a strong academic foundation in chemistry and related disciplines. Typically, professionals in this field hold advanced degrees such as a Master’s or Ph.D. in Chemistry, Computational Chemistry, or Chemical Engineering. These programs provide rigorous training in chemical theory, laboratory practices, and computational modeling, equipping researchers with the skills necessary for complex chemical analysis and research. Dr. Keshta’s contributions to scientific publications indicate a high level of expertise and a solid educational background supporting his research endeavors.

Professional Experience

Dr. Keshta is currently engaged with the Department of Computational Chemistry at CDBIO in Romania. His professional experience encompasses research in computational chemistry, where he applies theoretical and computational methods to solve chemical problems. This role involves collaboration with interdisciplinary teams, contributing to the development of innovative solutions in chemistry. His involvement in recent publications, such as the study on tissue adhesive hydrogels, demonstrates his active participation in advancing chemical research. While specific details of his previous positions are not disclosed, his current role signifies a career dedicated to scientific inquiry and research excellence.

Research Interests

Dr. Keshta’s research interests lie within the broad field of chemistry, with a particular focus on computational chemistry. This area involves using computer simulations and models to understand chemical structures, reactions, and properties. His work contributes to the development of new materials and chemical processes, as evidenced by his co-authorship in a study on wet surface tissue adhesive hydrogels for wound treatment . Such research has significant implications in biomedical applications, showcasing his interest in applying chemical principles to solve real-world problems.

Research Skills

Dr. Keshta possesses a strong skill set in computational chemistry, including proficiency in molecular modeling, simulation techniques, and data analysis. His expertise enables him to investigate complex chemical systems and contribute to the design of novel materials. The study on tissue adhesive hydrogels highlights his ability to collaborate on interdisciplinary research, integrating chemistry with biomedical applications . His skills are essential for advancing research in developing materials with specific properties, such as biocompatibility and adhesion, which are critical in medical treatments.

Awards and Honors

There is no publicly available information regarding specific awards or honors received by Dr. Keshta. However, his recognition as a global expert in chemistry from Romania indicates a respected standing in the scientific community . His contributions to high-impact research publications further underscore his professional achievements and the esteem in which he is held by peers in his field.

Conclusion

Dr. Basem E. Keshta is a committed chemist specializing in computational chemistry, contributing to significant research endeavors at CDBIO in Romania. His work, particularly in developing tissue adhesive hydrogels, demonstrates the practical applications of his research in addressing medical challenges . While specific details about his educational background and awards are not publicly disclosed, his active role in scientific research and recognition as a global expert reflect his dedication and impact in the field of chemistry

Publications Top Notes

  • Chemical insight into the adsorption of reactive wool dyes onto amine-functionalized magnetite/silica core-shell from industrial wastewaters
    Authors: AH Gemeay, BE Keshta, RG El-Sharkawy, AB Zaki
    Year: 2020

  • MIL series-based MOFs as effective adsorbents for removing hazardous organic pollutants from water
    Authors: BE Keshta, H Yu, L Wang
    Year: 2023

  • Impacts of horseradish peroxidase immobilization onto functionalized superparamagnetic iron oxide nanoparticles as a biocatalyst for dye degradation
    Authors: BE Keshta, AH Gemeay, AA Khamis
    Year: 2021

  • State of the art on the magnetic iron oxide nanoparticles: Synthesis, Functionalization, and applications in wastewater treatment
    Authors: BE Keshta, AH Gemeay, DK Sinha, S Elsharkawy, F Hassan, N Rai, et al.
    Year: 2024

  • Cutting-edge in the green synthesis of MIL-101 (Cr) MOF based on organic and inorganic waste recycling with extraordinary removal for anionic dye
    Authors: BE Keshta, H Yu, L Wang, AH Gemeay
    Year: 2023

  • Advanced lithography materials: From fundamentals to applications
    Authors: Y Zhang, H Yu, L Wang, X Wu, J He, W Huang, C Ouyang, D Chen, et al.
    Year: 2024

  • Recent advances in wet surface tissue adhesive hydrogels for wound treatment
    Authors: A Basit, H Yu, L Wang, MA Uddin, Y Wang, KM Awan, BE Keshta, et al.
    Year: 2024

  • Cost-effective synthesis of MIL-101 (Cr) from recyclable wastes and composite with polyaniline as an ion-to-electron transducer for potentiometric Pb2+ sensing
    Authors: BE Keshta, H Yu, L Wang, MA Uddin, HG El-Attar, AE Keshta, AH Gemeay, et al.
    Year: 2024

  • A state-of-the-art review on green synthesis and modifications of ZnO nanoparticles for organic pollutants decomposition and CO2 conversion
    Authors: ZU Zango, A Garba, FB Shittu, SS Imam, A Haruna, MU Zango, IA Wadi, et al.
    Year: 2025

  • Influence of Synthesis and Functionalization Procedures of Fe3O4 NPs by Mono- and Diamino Silane Coupling Agents on the Adsorption Efficiency of Anionic Dyes
    Authors: BE Keshta, AH Gemeay
    Year: 2022

 

Swati Gangwar | Chemical Engineering | Women Researcher Award

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Ms. Swati Gangwar | Chemical Engineering | Women Researcher Award

Research scholar from Indian institute of Technology, India

Swati Gangwar is a dedicated research scholar currently pursuing her PhD in Chemical Engineering at the Indian Institute of Technology (IIT), Jammu. With a strong academic foundation marked by a first-class chemical engineering degree from AITH Kanpur and a Master’s degree from Harcourt Butler Technical University (HBTU), Kanpur, she has steadily advanced her expertise in thermal hydraulics and fluid flow. Under the mentorship of P.K. Vijayan, a distinguished expert with extensive experience at BARC, Swati has focused on natural circulation systems, which are critical in energy-efficient and safe passive heat transfer technologies. Her research contributions include experimental, numerical, and analytical studies of thermosyphon heat transport devices, indoor solar cooktops, and passive cooling systems applicable to renewable energy and nuclear safety sectors. Swati’s work has been published in prestigious international journals such as Nuclear Engineering and Design and IEEE Electrification Magazine, demonstrating her ability to contribute novel insights to her field. With ongoing projects and collaborative efforts, she continues to advance research that bridges theoretical understanding and practical innovation in heat transfer mechanisms, positioning herself as a promising leader in chemical engineering research.

Professional Profile

Education

Swati Gangwar completed her Bachelor of Technology (B.Tech) degree in Chemical Engineering from AITH Kanpur in 2016, graduating with first-class honors. She pursued her Master of Technology (M.Tech) in Chemical Engineering at Harcourt Butler Technical University (HBTU), Kanpur, completing it in 2019. Her graduate studies laid a solid foundation in core chemical engineering principles, with a growing interest in thermal systems and fluid mechanics. Currently, she is enrolled in a PhD program at the Indian Institute of Technology Jammu, focusing on heat transfer and fluid flow under the guidance of Professor P.K. Vijayan. The doctoral program enables her to engage deeply in research related to natural circulation loops, thermosyphon heat transport devices, and their applications in sustainable energy systems and nuclear safety. Her education trajectory reflects a consistent focus on advancing her expertise in thermal hydraulics and related engineering challenges, supported by rigorous academic training and research exposure at premier Indian institutions.

Professional Experience

Swati’s professional experience is primarily academic and research-oriented, centered on her PhD studies at IIT Jammu. She has actively contributed to research projects involving thermosyphon heat transport devices and natural circulation systems, focusing on experimental design, numerical modeling, and performance analysis. Her collaboration with her supervisor, Prof. P.K. Vijayan, who has a rich background in nuclear thermal hydraulics and reactor engineering, has enriched her exposure to practical challenges in energy systems design and safety. Swati has also worked on projects related to solar indoor cooktops, a novel application of thermosyphon technology, reflecting her ability to translate research into practical innovations. She has been involved in publishing several peer-reviewed papers in high-impact journals and presenting findings at scientific forums, contributing to the academic community. Although her experience is mainly research-focused, it reflects strong technical skills, teamwork in collaborative environments, and dedication to advancing applied thermal engineering solutions.

Research Interests

Swati’s research interests lie in the field of heat transfer, fluid dynamics, and passive cooling systems. Specifically, she focuses on natural circulation loops (NCLs) and thermosyphon heat transport devices (THTDs), which utilize buoyancy-driven flow to enable efficient heat transfer without mechanical pumps. Her work encompasses both single-phase and two-phase natural circulation systems, with a strong emphasis on stability analysis and flow instabilities. She is particularly interested in developing innovative applications of these passive heat transfer technologies, such as solar indoor cooking devices, passive fuel cooling systems in small modular reactors (SMRs), and sustainable energy solutions like solar space heating. Swati’s research aims to address critical challenges in renewable energy and nuclear safety by optimizing thermal-hydraulic performance and enhancing system stability. Her work bridges theoretical modeling, numerical simulations, and experimental validations to provide comprehensive insights into these systems’ behavior under various boundary conditions, contributing to safer and more efficient energy technologies.

Research Skills

Swati possesses a robust set of research skills combining experimental, analytical, and computational techniques. She is proficient in designing and conducting experiments related to thermosyphon heat transport devices and natural circulation loops, including setup fabrication, instrumentation, and data acquisition. Her skills include numerical modeling and simulation using system codes to predict thermo-hydraulic behavior and flow stability. She has experience in analytical methods for stability criteria development and performance analysis under varying operating conditions. Swati’s ability to integrate experimental data with numerical models allows her to validate and refine theoretical predictions effectively. Additionally, she has strong scientific writing skills, demonstrated through multiple publications in reputed journals. Her research also involves using computational fluid dynamics (CFD) tools for detailed flow analysis. Collaborating with multidisciplinary teams and managing complex research projects further highlights her organizational and teamwork capabilities. Overall, Swati’s research skills position her to make meaningful contributions to passive cooling and heat transfer technologies.

Awards and Honors

Swati Gangwar’s recognition primarily stems from her academic excellence and research contributions during her ongoing PhD. While specific external awards or honors were not explicitly mentioned, her work’s acceptance and publication in high-impact, peer-reviewed journals such as Nuclear Engineering and Design and IEEE Electrification Magazine are significant markers of her research quality and impact. Being mentored by a leading expert in the field, Prof. P.K. Vijayan, also adds to her academic prestige. Her participation in advanced research projects and collaborations, coupled with acceptance of her work in reputed journals, reflects peer recognition within the scientific community. Future recognition may include awards related to innovations in renewable energy or nuclear safety, given the societal relevance of her research areas. Encouragingly, her trajectory and ongoing scholarly output suggest a promising career with potential for further accolades and honors as she continues to contribute to her field.

Conclusion

Swati Gangwar exemplifies a promising young researcher with strong academic foundations, relevant professional experience, and a clear focus on impactful research in thermal hydraulics and fluid flow. Her work on natural circulation loops and thermosyphon devices addresses important challenges in renewable energy and nuclear safety, combining theoretical, numerical, and experimental approaches. With multiple high-quality journal publications and ongoing innovative projects, she is steadily establishing herself as a capable and impactful researcher. To strengthen her profile further, opportunities to demonstrate leadership in research projects, increase engagement with the wider scientific community through conferences, and pursue external funding or patents would be beneficial. Overall, Swati’s dedication and contributions position her well as a deserving candidate for the Women Researcher Award, highlighting her potential as a future leader in engineering research.

Publications Top Notes

  1. Title: Insight on the steady-state performance of single-phase Natural circulation loops
    Year: 2025
    Authors: Swati Gangwar, P. K. Vijayan, Goutam Dutta
    Journal: Nuclear Engineering and Design, Volume 440, 114128

  2. Title: Insights on the instability and stabilizing techniques for natural circulation loops
    Year: 2025
    Authors: P. K. Vijayan, Swati Gangwar, Dev Banitia, U. C. Arunachala, S. Nakul, D. N. Elton, K. Varun
    Journal: Nuclear Engineering and Design, Volume 438, 114017

  3. Title: Intrinsically Safe Thermohydraulic Designs for SMRs: Design advantages and challenges
    Year: 2024
    Authors: P. K. Vijayan, Swati Gangwar
    Journal: IEEE Electrification Magazine, Volume 12, Issue 4, pp. 75–83
    DOI: 10.1109/MELE.2024.3473332

  4. Title: CFD analysis of the steady-state performance of a cooktop integrated Thermosyphon heat transport device with two bends
    Year: 2025
    Authors: Sonu Kumar, Pallippattu Krishnan Vijayan, Swati Gangwar, Satya Sekhar Bhogilla
    Journal: Heat Transfer Engineering Journal (Accepted for publication)

  5. Title: Experimental performance of a novel solar indoor cooktop using THTD
    Year: 2024
    Authors: Swati Gangwar, A. Budakoti, S. S. Bhogilla, G. Dutta, P. K. Vijayan
    Journal: ASTFE Digital Library, Begell House Inc.

PRATHIBA Gurusamy | Engineering | Women Researcher Award

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Dr. PRATHIBA Gurusamy | Engineering | Women Researcher Award

Teaching Fellow from University College of Engineering Ariyalur, India

Dr. G. Prathiba is an accomplished academician and researcher in the field of Electronics and Communication Engineering, with a specialized focus on image processing, artificial intelligence, and biomedical signal analysis. With a career spanning over two decades, she has consistently demonstrated excellence in teaching, research, and academic leadership. Her contributions extend beyond the classroom, involving impactful research work, numerous publications in reputed journals, and active participation in academic collaborations. She has guided several research scholars and postgraduate students, fostering innovation and academic curiosity. Dr. Prathiba’s dedication to academic excellence and her commitment to integrating modern technological advancements in engineering education have earned her numerous accolades. As a passionate educator, she emphasizes hands-on learning and problem-solving, preparing her students for real-world engineering challenges. Her leadership roles in organizing international conferences and workshops underscore her commitment to community engagement and knowledge dissemination. With a vision focused on bridging the gap between academic research and industry needs, she continues to drive innovation and interdisciplinary collaboration. Dr. Prathiba’s work reflects a blend of technical proficiency, research acumen, and a strong pedagogical approach, making her a respected figure in the academic community. Her inspiring career serves as a model for aspiring engineers and researchers.

Professional Profile

Education

Dr. G. Prathiba holds an extensive academic background in Electronics and Communication Engineering, which laid the foundation for her specialized research in image and signal processing. She earned her Bachelor of Engineering (B.E.) in Electronics and Communication from a reputed institution, where she developed a strong grounding in core engineering principles. She then pursued her Master’s degree (M.E.) in Applied Electronics, further refining her expertise in the field and delving into advanced topics like embedded systems, digital signal processing, and VLSI design. Her thirst for knowledge and innovation led her to undertake a Ph.D. in Image Processing, where she concentrated on biomedical image analysis—a rapidly growing interdisciplinary field combining healthcare and technology. Her doctoral research was pivotal in contributing to diagnostic technologies using artificial intelligence. Throughout her educational journey, Dr. Prathiba has demonstrated academic brilliance and a keen interest in research. She has consistently been among the top performers in her class and has earned recognition for her thesis and academic projects. Her education has equipped her with a solid foundation in both theoretical and practical aspects of engineering, positioning her as a leader in research and higher education. Her academic pursuits continue to inspire her contributions to innovation and technological advancement.

Professional Experience

Dr. G. Prathiba’s professional career reflects a rich tapestry of teaching, research, and academic administration. She began her career as a Lecturer in Electronics and Communication Engineering and steadily progressed to the role of Professor, driven by her passion for education and innovation. Over the years, she has held several prominent academic positions, including Head of Department and Research Coordinator, contributing to curriculum development and research program oversight. Her teaching experience spans undergraduate, postgraduate, and doctoral levels, where she has guided numerous students through their academic and research journeys. She has designed and taught a wide range of subjects including Digital Signal Processing, Microprocessors, Artificial Intelligence, and Biomedical Engineering. In addition to teaching, Dr. Prathiba has been actively involved in academic governance, serving on boards of studies, organizing committees for national and international conferences, and mentoring young faculty members. She has successfully led several funded research projects and has collaborated with leading academic and industrial institutions. Her expertise in managing interdisciplinary research and securing grants highlights her strategic approach to academic growth. Dr. Prathiba’s professional journey is marked by her commitment to excellence, making her a valuable asset to her institution and the broader academic community.

Research Interests

Dr. G. Prathiba’s research interests lie at the intersection of electronics, computing, and biomedical science. Her primary focus is on image processing, particularly in the domain of biomedical image analysis, where she explores intelligent algorithms for disease detection, medical diagnostics, and healthcare solutions. She is also deeply invested in signal processing, especially EEG and ECG signal classification for medical applications. Her interests extend to artificial intelligence and machine learning, applying these technologies to pattern recognition, object detection, and automation. Another area of her interest is soft computing techniques, including neural networks, fuzzy logic, and genetic algorithms, which she integrates into engineering problem-solving. Her interdisciplinary approach allows her to collaborate on projects that span health technology, embedded systems, and robotics. Additionally, Dr. Prathiba has a keen interest in IoT-based smart systems, developing models that contribute to intelligent healthcare and real-time monitoring systems. Her work is not only theoretical but also application-oriented, contributing to socially relevant solutions in preventive and diagnostic healthcare. Through her innovative research and publication record, Dr. Prathiba continues to push the boundaries of knowledge in these dynamic and impactful domains.

Research Skills

Dr. G. Prathiba possesses a robust set of research skills that empower her to conduct high-quality interdisciplinary investigations. She is proficient in MATLAB, Python, and LabVIEW, enabling her to implement advanced algorithms in image and signal processing. Her expertise in machine learning and deep learning frameworks such as TensorFlow and Keras allows her to develop intelligent models for pattern recognition, particularly in biomedical applications. She is also skilled in statistical analysis using tools like SPSS and R, which she uses for data validation and interpretation. Dr. Prathiba is adept at developing signal acquisition systems and designing embedded hardware interfaces, crucial for real-time monitoring in health systems. Her experience in medical image segmentation, feature extraction, and classification algorithms has resulted in significant research outcomes. Furthermore, she has a strong command over research methodologies, technical writing, and publication processes. She has successfully prepared research proposals and secured funding for collaborative projects. Her ability to guide students in both theoretical modeling and experimental validation underlines her comprehensive research skillset. Dr. Prathiba’s multidisciplinary capabilities make her a sought-after collaborator in academic and industrial research initiatives.

Awards and Honors

Dr. G. Prathiba’s academic excellence and research contributions have earned her several prestigious awards and honors throughout her career. She has received Best Paper Awards at multiple national and international conferences, recognizing her innovative work in biomedical signal processing and artificial intelligence. Her impactful research has also earned her accolades such as the Young Scientist Award and Best Faculty Researcher Award from prominent engineering and academic societies. Dr. Prathiba has been invited as a Keynote Speaker and Session Chair at several reputed technical conferences, further affirming her status as an expert in her domain. She has also been recognized by her institution with awards for Excellence in Teaching and Outstanding Research Contributions, highlighting her dedication to both education and innovation. Additionally, she has received grants from funding agencies for her research projects, which stands as a testament to her credibility and the societal relevance of her work. Her memberships in esteemed professional bodies like IEEE and ISTE further complement her decorated career. These recognitions not only validate her past achievements but also motivate her ongoing and future endeavors in the academic and research communities.

Conclusion

In summary, Dr. G. Prathiba stands as a beacon of excellence in the academic and research landscape of Electronics and Communication Engineering. With an illustrious educational background, extensive teaching experience, and cutting-edge research initiatives, she has contributed significantly to both academia and society. Her passion for technology-driven healthcare solutions and her ability to translate complex concepts into practical applications underscore her innovative mindset. Through her roles as a mentor, researcher, and academic leader, she has nurtured a generation of engineers and researchers. Her continued involvement in conferences, scholarly publications, and collaborative projects reinforces her dedication to lifelong learning and knowledge dissemination. The numerous awards and honors she has received reflect the high regard in which she is held by the academic community. Dr. Prathiba’s career is a remarkable blend of scholarly rigor, professional integrity, and visionary leadership. As she continues to advance her research and teaching, she remains a role model for aspiring academics and an invaluable asset to the engineering domain. Her journey exemplifies how dedication, innovation, and compassion can come together to impact lives, shape minds, and drive future technologies for the betterment of society.

Publications Top Notes

  1. Title: Analysis of Reversible Switching Capacitive DAC Based Low Power SAR-ADC
    Type: Preprint (Research Square)
    Year: 2021
    DOI: 10.21203/rs.3.rs-164633/v1
    EID: 2-s2.0-85166695178
    Authors: Prathiba, G.; Santhi, M.

  1. Title: A 2.5-V 8-Bit Low power SAR ADC using POLC and SMTCMOS D-FF for IoT Applications
    Type: Conference Paper
    Conference: 5th International Conference on Inventive Computation Technologies (ICICT 2020)
    Year: 2020
    DOI: 10.1109/ICICT48043.2020.9112548
    EID: 2-s2.0-85086993340
    Authors: Prathiba, G.; Santhi, D.M.

  1. Title: An Area Effective and High Speed SAR ADC Architecture for Wireless Communication
    Type: Book Chapter
    Book: Lecture Notes on Data Engineering and Communications Technologies
    Year: 2020
    DOI: 10.1007/978-3-030-37051-0_67
    EID: 2-s2.0-85083453429
    ISSN: 2367-4520 / 2367-4512
    Authors: Prathiba, G.; Santhi, M.

  1. Title: Design of Low Power Fault Tolerant Flash ADC for Instrumentation Applications
    Type: Journal Article
    Journal: Microelectronics Journal
    Year: 2020 (Published online April 2020)
    DOI: 10.1016/j.mejo.2020.104739
    EID: Not provided, but appears in Scopus
    Authors: G. Prathiba; M. Santhi

 

 

Mehdi Chemseddine FARAH | Engineering | Best Researcher Award

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Assist. Prof. Dr. Mehdi Chemseddine FARAH | Engineering | Best Researcher Award

Telecommunications and Digital Signal Processing Laboratory, Djillali Liabes University, Sidi Bel Abbes, Algeria

Dr. FARAH Mehdi Chemseddine is a Lecturer Class B at the Telecommunications and Digital Signal Processing Laboratory, Djillali Liabes University, Sidi Bel Abbès, Algeria. He specializes in the design and optimization of microwave circuits, with a focus on microstrip technology. His research encompasses the development of compact and efficient microwave components such as hybrid couplers, power dividers, low-pass filters, and diplexers. Dr. Chemseddine has authored several publications in reputable journals, including the Journal of Circuits, Systems and Computers and Telecommunications and Radio Engineering. His work is characterized by innovative approaches to improving electrical performance, selectivity, and reducing the footprint of microwave devices. He has also participated in international conferences, presenting his research findings to the global scientific community. Dr. Chemseddine’s contributions to the field of telecommunications engineering demonstrate his commitment to advancing microwave circuit design and his potential as a leading researcher in this domain.

Professional Profile

Education

Dr. Chemseddine’s academic journey began with a Bachelor’s degree in Exact Sciences in 2008. He then pursued a License in Electrical Engineering, specializing in Communication Networks, which he completed in 2014. In 2016, he obtained a Master’s degree in High-Frequency Communication Systems from Djillali Liabes University. His academic pursuits culminated in earning a Ph.D. in Telecommunication Systems from the same university in 2022. Throughout his educational career, Dr. Chemseddine has demonstrated a strong foundation in electrical and communication engineering principles, which has been instrumental in his research endeavors. His academic background has equipped him with the necessary skills and knowledge to contribute significantly to the field of microwave circuit design.

Professional Experience

Dr. Chemseddine began his professional career as a Maître-Assistant Class B at the Faculty of Electrical Engineering, Department of Telecommunications, Djillali Liabes University, in 2023. In 2024, he was promoted to Maître-Conférence Class B at the same institution. His responsibilities include teaching undergraduate and graduate courses, supervising student research projects, and conducting his own research in microwave circuit design. Dr. Chemseddine has also completed internships, including one at the Hubert Curien Laboratory in Saint-Étienne, France, where he designed and implemented a microwave low-pass filter using planar technology. His professional experience reflects a commitment to both education and research in telecommunications engineering.

Research Interests

Dr. Chemseddine’s research interests are centered on the design and optimization of microwave circuits, particularly using microstrip technology. He focuses on developing compact, efficient, and cost-effective components such as hybrid couplers, power dividers, low-pass filters, and diplexers. His work aims to address challenges in electrical performance, selectivity, and device miniaturization. Dr. Chemseddine employs advanced simulation tools like HFSS and ADS to model and analyze microwave components, ensuring their practical applicability in telecommunications systems. His research contributes to the advancement of microwave engineering by providing innovative solutions for modern communication systems.

Research Skills

Dr. Chemseddine possesses a robust set of research skills in microwave circuit design and telecommunications engineering. He is proficient in using simulation and design tools such as HFSS (High-Frequency Structure Simulator), ADS (Advanced Design System), and MATLAB for modeling and analyzing microwave components. His expertise includes designing microstrip-based devices, optimizing their performance parameters, and validating their functionality through simulations and experimental measurements. Dr. Chemseddine’s skills enable him to develop innovative solutions that meet the demands of modern communication systems, emphasizing efficiency, compactness, and cost-effectiveness. His technical competencies are integral to his contributions to the field of microwave engineering.

Awards and Honors

While specific awards and honors are not detailed in the provided information, Dr. Chemseddine’s selection as a nominee for the Best Researcher Award at the International Research Awards on Science, Health, and Engineering underscores his recognition in the scientific community. His publications in reputable journals and presentations at international conferences further attest to his contributions and standing in the field of telecommunications engineering. These accomplishments reflect his dedication to research excellence and his potential for future accolades in his area of expertise.

Conclusion

Dr. FARAH Mehdi Chemseddine is an emerging researcher in the field of microwave circuit design and telecommunications engineering. His academic background, professional experience, and focused research interests have led to significant contributions in developing compact and efficient microwave components. Through his publications and conference presentations, he has demonstrated a commitment to advancing the field and addressing practical challenges in communication systems. Dr. Chemseddine’s proficiency in simulation tools and design methodologies positions him as a valuable contributor to both academic and industry-related projects. His nomination for the Best Researcher Award highlights his potential and the impact of his work in the scientific community.

Publications Top Notes

  1. Title: A Design of a Compact Microwave Diplexer in Microstrip Technology Based on Bandpass Filters Using Stepped Impedance Resonator
    Authors: M.C. Farah, F. Salah-Belkhodja, K. Khelil
    Journal: Journal of Microwaves, Optoelectronics and Electromagnetic Applications
    Year: 2022
    Citations: 6

  2. Title: A Novel Design of a Wilkinson Power Divider Based on the Circular-Shape Resonator
    Authors: R. El Bouslemti, C.M. Farah
    Journal: Frequenz, Vol. 78 (11-12), pp. 621–631
    Year: 2024
    Citations: 3

  3. Title: A Design of Microstrip Low-pass Filter Using Ground-Plane Coplanar Waveguide (GCPW)
    Authors: F.M. Chemseddine, E. Rahmouna, V. Didier
    Journal: Telecommunications and Radio Engineering
    Year: 2024
    Citations: 1

  4. Title: Design of Wilkinson Power Divider for Mobile and WLAN Applications
    Authors: M.C. Farah, F. Salah-Belkhodja
    Source: Proceedings of the International Conference for Pioneering and Innovative Technologies
    Year: 2023
    Citations: 1

  5. Title: A Design of Microstrip 180 Degree Hybrid Coupler Using T-Shape Structure for Monopulse Radar
    Authors: F.M. Chemseddine, S.B. Faouzi, F.Y. Hadj Aissa
    Journal: Journal of Circuits, Systems and Computers
    Year: 2025

  6. Title: Exploring Corrosion Behavior in Different Environments Using a Passive Microstrip Sensor
    Authors: R. El Bouslemti, M.C. Farah
    Journal: Communication Science et Technologie, Vol. 22 (1), pp. 7–17
    Year: 2024

  7. Title: Conception d’un Coupleur Microondes à Branches en Technologie Microstrip
    Authors: M.C. Farah, F. Salah-Belkhodja, Z. Kaldoune, A. Cheikh
    Journal: Communication Science et Technologie, Vol. 21 (1), pp. 13–33
    Year: 2023

  8. Title: Conception en Technologie Microstrip d’un Diplexeur Microondes Basé sur des Filtres à Saut d’Impédance
    Authors: F.M. Chemseddine
    Year: 2022

  9. Title: Conception en Technologie Microstrip d’un Diplexeur Microondes Basé sur des Filtres à Saut d’Impédance
    Authors: M.C. Farah, F. Salah-Belkhodja
    Year: 2022

Bashar Ibrahim | Engineering | Innovative Research Award

Published on by Shen Awards

Mr. Bashar Ibrahim | Engineering | Innovative Research Award

Project Engineer from Fraunhofer Institute for Non-Destructive Testing, Germany

Bashar Ibrahim is a skilled engineering professional specializing in materials science, non-destructive testing (NDT), and sensor systems development. Currently employed as a Project Engineer at Fraunhofer IZFP in Saarbrücken, he plays a central role in coordinating and executing applied research projects. His expertise lies in designing and implementing advanced sensor modules, analyzing material structures, and utilizing simulation tools such as FEM to evaluate electromagnetic measurement techniques. With a strong interdisciplinary background, Mr. Ibrahim is capable of integrating mechanical design with data processing to optimize research outcomes. His contributions include the construction of test components using additive manufacturing and the supervision of student assistants in laboratory settings. Fluent in Arabic, German, and English, he brings strong multicultural communication skills to collaborative environments. His academic training, combined with practical industry experience, demonstrates his ability to bridge theoretical knowledge with hands-on technical application. While his profile is currently oriented towards application-focused research, he has potential for further academic impact through publications and knowledge dissemination. Mr. Ibrahim’s work reflects strong potential for innovation, and with greater emphasis on scholarly outputs, he could emerge as a leading contributor in his field. He is a capable, dedicated, and technically sound professional with emerging research strengths.

Professional Profile

Education

Bashar Ibrahim holds a Master of Science degree in Materials Science and Engineering with a specialization in materials technology from the University of Saarland, Germany, completed between 2019 and 2022. His academic focus during the master’s program equipped him with knowledge in advanced materials characterization, mechanical behavior of materials, and data evaluation techniques. Prior to this, he earned a Bachelor of Engineering degree in Mechanical Engineering with a concentration in design and production from Al-Baath University in Homs, Syria (2005–2010). This foundational education emphasized core mechanical engineering principles, including machine design, thermodynamics, and fluid mechanics. Mr. Ibrahim has also pursued professional development through specialized training, such as a fundamentals course in non-destructive testing (BC 3 Q M1) at DGZFP Berlin in 2022. Additionally, he gained hands-on industrial training during his time at Wipotec GmbH in Kaiserslautern, where he worked on 2D and 3D modeling and technical drawing creation. His education is complemented by his earlier self-employed work as a CAD instructor, where he taught software such as Mechanical Desktop, AutoCAD, and SolidWorks. This comprehensive educational background has laid a strong technical and analytical foundation, allowing him to contribute meaningfully to complex, interdisciplinary research projects.

Professional Experience

Bashar Ibrahim’s professional career is anchored in his current role as a Project Engineer at Fraunhofer IZFP in Saarbrücken, Germany, a position he has held since 2022. Here, he leads and coordinates multiple research initiatives, particularly in the areas of sensor technology, data visualization, and non-destructive material testing. His responsibilities include designing test structures via additive manufacturing, developing sensor systems, and performing FEM simulations to optimize electromagnetic testing methods. From 2020 to 2022, he served as a Research Assistant at the same institution, where he contributed to the development of a deflection measurement system for urban cable monitoring and participated in various simulation-based research tasks. His earlier experience includes technical support roles such as at Kern GmbH, where he handled large-format digital printing and material processing, and at Wipotec GmbH, where he worked in the design department focusing on 3D modeling and technical drawing. In addition, from 2010 to 2016, he worked independently as a private CAD instructor in Salamieh, Syria, where he trained professionals and students in mechanical design and simulation software. Mr. Ibrahim’s career trajectory demonstrates consistent growth in technical and research competencies, with increasing responsibility and a clear transition into applied research within a leading European research institution.

Research Interests

Bashar Ibrahim’s research interests are centered on advanced non-destructive testing (NDT) methods, sensor integration, additive manufacturing, and material characterization. His focus lies in the development and application of electromagnetic and vibrational testing systems to evaluate material structures and properties without causing damage. Ibrahim is particularly interested in the design and optimization of multi-module sensor systems for data acquisition and analysis in industrial and research environments. Additionally, he engages in the use of simulation software to model physical phenomena, with an emphasis on the finite element method (FEM) to study electromagnetic responses in materials. He also explores the application of additive manufacturing techniques to produce customized test samples and components for laboratory testing. His interdisciplinary interests span mechanical design, materials engineering, data processing, and digital fabrication, placing him at the convergence of hardware development and computational analysis. He is also drawn to the automation of testing systems and real-time data interpretation, reflecting a strong inclination toward smart manufacturing and Industry 4.0 concepts. Through these interests, Mr. Ibrahim aims to contribute to innovations that improve testing efficiency, accuracy, and integration into broader industrial applications. His research is inherently practical, with a clear orientation toward solving real-world engineering problems.

Research Skills

Bashar Ibrahim brings a diverse and robust set of research skills, making him well-equipped for multidisciplinary engineering projects. His core competencies include non-destructive testing techniques, particularly in the application of electromagnetic methods for assessing material properties. He is adept at conducting FEM simulations using tools such as Comsol and Ansys to model and analyze physical interactions within materials. His programming and data analysis skills in Python, Matlab, and Octave allow him to process complex datasets and visualize results effectively. Mr. Ibrahim has practical experience with sensor system design, including the integration and calibration of multiple measurement modules for real-time data collection. He is also proficient in mechanical design and modeling, using CAD platforms like SolidWorks, AutoCAD, and Mechanical Desktop. His background in additive manufacturing supports the fabrication of experimental setups and prototype components for research testing. Furthermore, he has experience in mentoring and guiding student assistants, indicating his capability in team collaboration and technical training. His ability to bridge computational analysis with physical experimentation is a significant strength, allowing him to contribute both theoretically and practically. These skills collectively empower him to work effectively in experimental research, data-driven engineering, and innovation-driven projects.

Awards and Honors

While there is currently no formal documentation of major awards or honors in Bashar Ibrahim’s profile, his ongoing work at Fraunhofer IZFP—a renowned research institution—demonstrates a level of trust and recognition in his professional capabilities. Being employed in a project engineering capacity at such a prestigious institute suggests that he has consistently met high standards of technical and research performance. His selection for participation in specialized training programs, such as the DGZFP course on non-destructive testing, further reflects his commitment to professional development and his potential for recognition in the future. Additionally, his earlier role as an independent CAD instructor and his involvement in supervising student assistants imply acknowledgment of his subject matter expertise and leadership potential. Although formal awards are not currently listed, Mr. Ibrahim’s work ethic, multidisciplinary skills, and contributions to applied research projects position him well for future accolades, especially if he continues to increase his scholarly output through publications, conference participation, or patents. With continued growth in academic visibility and project leadership, he is likely to gain formal honors that reflect his ongoing innovation in materials science and sensor-based technologies.

Conclusion

Bashar Ibrahim is a technically competent and professionally driven researcher with a strong foundation in mechanical engineering, materials science, and non-destructive testing. His current role at Fraunhofer IZFP places him at the forefront of applied research in sensor systems, FEM-based simulations, and data-driven material analysis. His practical experience is complemented by a strong academic background and continuous professional development, including specialized training and mentorship roles. While his contributions are primarily focused on application-oriented research, his skills, initiative, and interdisciplinary approach make him a promising candidate for innovation-driven recognition. To fully meet the criteria of an Innovative Research Award, further emphasis on academic dissemination—through publications, patents, or technical conferences—would strengthen his profile. Nonetheless, Mr. Ibrahim has already demonstrated the capacity to contribute meaningfully to the field and to solve complex engineering challenges. With a growing track record and potential for increased scholarly output, he stands out as a candidate with emerging research excellence and innovation potential. His career path reflects both competence and ambition, making him a strong contender for future research-based honors and awards.

Publication Top Notes

  1. Title: Complete CASSE acceleration data measured upon landing of Philae on comet 67P at Agilkia
    Authors: Arnold, Walter K.; Becker, Michael M.; Fischer, Hans Herbert; Knapmeyer, Martin; Krüger, Harald
    Journal: Acta Astronautica
    Year: 2025

Seyed Sepehr Mohseni | Engineering | Best Researcher Award

Published on by Shen Awards

Mr. Seyed Sepehr Mohseni | Engineering | Best Researcher Award

University of Tehran from Switzerland. 

Seyed Sepehr Mohseni is a biomedical engineer specializing in microfluidics, microfabrication, and biomechanics. With a keen interest in developing innovative microfluidic platforms for biological and clinical applications, his research addresses vital issues in cell sorting, cancer diagnostics, and organ-on-a-chip technologies. Having completed both his Bachelor’s and Master’s degrees with distinction in biomedical engineering, he has already contributed to several high-impact journal articles and conference presentations. His master’s thesis focused on the separation of circulating tumor cells (CTCs) using a novel arc-shaped microfluidic channel, which showcases his strength in problem-solving and innovation. Beyond academia, he has volunteered as a technical expert in the medical device field and worked on collaborative research projects involving cell culture and biosensor development. Seyed Sepehr’s combined academic excellence, laboratory expertise, and interdisciplinary research experience reflect his deep commitment to advancing biomedical technologies. His work not only aligns with current trends in healthcare engineering but also holds significant potential for clinical impact. As a young researcher with a growing international presence, he demonstrates strong potential for leadership in biomedical research. He is well-positioned for prestigious recognitions such as the Best Researcher Award, owing to his innovative contributions and academic accomplishments in a relatively short span.

Professional Profile

Education

Seyed Sepehr Mohseni holds a Master of Science in Biomedical Engineering with a specialization in Biomechanics from the University of Tehran, Iran. He pursued his postgraduate studies at the Faculty of New Sciences and Technologies, completing his degree in July 2021. His master’s thesis, titled “CTCs separation by an obstacles-embedded arc-shaped microfluidic channel”, was awarded an excellent grade of 20/20, under the supervision of Dr. Ali Abouei Mehrizi. He graduated with a total GPA of 18.03/20, reflecting consistent academic performance across advanced engineering courses, including finite element methods, continuum mechanics, and biological modeling. Prior to that, he earned his Bachelor of Science in Biomedical Engineering, also in Biomechanics, from the Science and Research Branch of Islamic Azad University in Tehran, graduating in 2017. He maintained a strong GPA of 18.51/20 and ranked second among his cohort. Throughout both degrees, Seyed Sepehr showed an aptitude for interdisciplinary learning, bridging biology with engineering fundamentals. His academic record is supported by top national rankings in university entrance examinations, highlighting his early dedication to academic excellence and biomedical innovation. These achievements laid the foundation for his advanced research in microfluidics and device development for healthcare applications.

Professional Experience

Seyed Sepehr Mohseni has amassed a diverse portfolio of professional and research-oriented experiences that complement his academic training. During his postgraduate studies, he actively contributed to laboratory-based research at the Bio-Microfluidics Lab at the University of Tehran. His responsibilities included hands-on work with microfluidic device fabrication, droplet generators, cell sorting platforms, and fluorescence microscopy. He also served as a teaching assistant across multiple core engineering courses, including finite element methods, biomechanics, and biological system simulations, under the mentorship of Dr. Ali Abouei Mehrizi. In addition to his academic roles, Seyed Sepehr has gained industry-relevant experience. From 2019 to 2023, he worked as a technical expert at Setareh Kimia Persian Engineering Company, where he specialized in calibrating medical and laboratory devices. He also served as a technical supervisor for medical equipment importers and manufacturers with the General Directorate of Medical Equipment in Iran. In 2023, he joined a project at Iran University of Medical Sciences, focusing on the isolation of circulating tumor cells from blood samples, further integrating clinical applications with his engineering expertise. This breadth of experience reflects his ability to bridge research, industry, and healthcare regulation—key elements of a well-rounded biomedical professional.

Research Interest

Seyed Sepehr Mohseni’s research interests are centered around the development and application of microfluidic technologies in biomedical engineering. He is particularly focused on microfabrication, organ-on-a-chip systems, and cell culture platforms, aiming to address challenges in diagnostics, therapeutic monitoring, and disease modeling. His graduate thesis on CTC separation using an arc-shaped deterministic lateral displacement microchannel highlights his interest in cancer research and lab-on-a-chip solutions for non-invasive diagnostics. His scientific curiosity extends to biosensing applications, including the use of porous silicon integrated microchannels and reflectometric interference Fourier transform spectroscopy. He is also interested in biomaterials and hydrogel-based tissue engineering, as demonstrated in collaborative projects involving VEGF delivery systems and bone regeneration scaffolds. Seyed Sepehr’s interdisciplinary perspective allows him to combine mechanical design principles with biological applications, making his research highly relevant to current needs in precision medicine. With a growing interest in organ-on-a-chip and microfluidics-enabled point-of-care testing, his long-term vision involves developing platforms that enhance personalized healthcare. His research is aligned with global trends in translational medicine, aiming to move scientific innovation from the lab bench to clinical practice. This strong alignment of technical knowledge with clinical relevance defines his growing impact in the biomedical field.

Research Skills

Seyed Sepehr Mohseni brings a comprehensive set of research skills that span both computational and experimental domains in biomedical engineering. He is highly proficient in using simulation and modeling software such as COMSOL Multiphysics, MATLAB, ABAQUS, and Ansys Fluent, which he applies in the design and analysis of microfluidic devices and biomechanical systems. His academic background is strengthened by a deep understanding of finite element methods, continuum mechanics, and biological system simulations. In the laboratory, Seyed Sepehr has advanced expertise in microfabrication techniques such as photolithography and soft lithography. He has operated and analyzed microfluidic systems involving droplet generation, micromixing, and cell separation. His work is supported by imaging techniques, including fluorescence and confocal microscopy, as well as experience in 3D bioprinting and mammalian cell culture. These laboratory skills were honed through years of hands-on experience in the Bio-Microfluidics Lab at the University of Tehran. Additionally, he is adept in data visualization and analysis software such as Origin, Tracker, and ImageJ/Fiji, along with graphic design tools like Adobe Photoshop and Illustrator. His interdisciplinary competence allows him to transition smoothly from computational modeling to experimental implementation, which is essential for innovative research in biomedical device development.

Awards and Honors

Seyed Sepehr Mohseni has received multiple academic distinctions that reflect his high level of competence and commitment to biomedical engineering. In 2021, he was ranked first among the 2018 M.Sc. entrants in Biomedical Engineering at the Faculty of New Sciences and Technologies, University of Tehran. This recognition is a testament to his consistent academic excellence and outstanding performance in research-based coursework and laboratory activities. Earlier in his academic journey, he achieved second rank among all undergraduate entrants in Biomedical Engineering at Islamic Azad University in 2014. More notably, in the same year, he was ranked in the top 1% of participants in Iran’s highly competitive national university entrance exam for M.Sc. programs in Mechanical Engineering. These achievements highlight his intellectual rigor and early promise as a future leader in engineering research. His consistent high GPA throughout his academic career and the excellent grade for his master’s thesis further reinforce his qualifications. These honors, combined with his publication record in high-impact journals and active involvement in innovative research, make him a strong candidate for recognition through awards such as the Best Researcher Award. They confirm both his academic credibility and his potential to contribute significantly to the field.

Conclusion

In conclusion, Seyed Sepehr Mohseni stands out as a dedicated and innovative biomedical researcher with a strong foundation in both theory and practical application. His focused research on microfluidic systems, cell sorting technologies, and biosensing reflects a clear vision for solving contemporary challenges in healthcare engineering. He has already made meaningful contributions to the field through his publications, laboratory innovations, and cross-disciplinary collaborations. While his professional experience is still developing, it includes diverse roles in teaching, laboratory research, and clinical collaboration—all of which enrich his research profile. His ability to integrate engineering design with biological functionality demonstrates a maturity of thought uncommon in early-career researchers. Although he is yet to pursue a doctoral degree or lead large-scale independent projects, his current trajectory strongly suggests readiness for further academic advancement and leadership roles in biomedical research. Seyed Sepehr’s academic performance, technical expertise, and innovative outlook make him an ideal candidate for competitive research honors. The Best Researcher Award would not only recognize his current accomplishments but also encourage and support a promising career that is likely to yield significant impact in translational medicine and biomedical device development.

Publications Top Notes

  • Title: Preparation of microfluidic-based pectin microparticles loaded carbon dots conjugated with BMP-2 embedded in gelatin-elastin-hyaluronic acid hydrogel scaffold for bone tissue
    Authors: F. Moztarzadeh, M. Farokhi, A.A. Mehrizi, H. Basiri, S.S. Mohseni
    Journal: International Journal of Biological Macromolecules
    Volume/Page: 184, 29–41
    Year: 2021
    Citations: 60

  • Title: Machine learning-aided microdroplets breakup characteristic prediction in flow-focusing microdevices by incorporating variations of cross-flow tilt angles
    Authors: B. Talebjedi, A. Abouei Mehrizi, B. Talebjedi, S.S. Mohseni, N. Tasnim, …
    Journal: Langmuir
    Volume/Issue/Page: 38 (34), 10465–10477
    Year: 2022
    Citations: 14

  • Title: Microfluidic platforms for cell sorting
    Authors: F. Mirakhorli, S.S. Mohseni, S.R. Bazaz, A.A. Mehrizi, P.J. Ralph, M.E. Warkiani
    Journal: Sustainable Separation Engineering: Materials, Techniques and Process
    Year: 2022
    Citations: 12

  • Title: A Novel Strategy for Square-Wave Micromixers: A Survey of RBC Lysis for Further Biological Analysis
    Authors: A.H. Hazeri, A. Abouei Mehrizi, S.S. Mohseni, M. Ebrahimi Warkiani, …
    Journal: Industrial & Engineering Chemistry Research
    Volume/Issue/Page: 62 (40), 16215–16224
    Year: 2023
    Citations: 6

  • Title: Composite Microgels for Imaging-Monitored Tracking of the Delivery of Vascular Endothelial Growth Factor to Ischemic Muscles
    Authors: H. Basiri, S.S. Mohseni, A. Abouei Mehrizi, A. Rajabnejadkeleshteri, …
    Journal: Biomacromolecules
    Volume/Issue/Page: 22 (12), 5162–5172
    Year: 2021
    Citations: 4

  • Title: Flow rate controlling by capillary micropumps in open biomicrofluidic devices
    Authors: S. Fathi, S.S. Mohseni, A.A. Mehrizi
    Conference: 2020 27th National and 5th International Iranian Conference on Biomedical Engineering
    Year: 2020
    Citations: 4

  • Title: A novel microfluidic platform for MCF-7 separation: Arc-shaped deterministic lateral displacement microchannel
    Authors: S.S. Mohseni, A.A. Mehrizi, S. Fathi
    Journal: Microchemical Journal
    Volume/Page: 211, 113076
    Year: 2025