Shunbin Ning | Immunotherapy | Best Researcher Award

Posted on by Cryogenicist

Dr. Shunbin Ning | Immunotherapy | Best Researcher Award

Professor, East Tennessee State University, United States

Professor Shunbin Ning is a renowned expert in viral oncology and immunology, with a passion for uncovering the intricate mechanisms of chronic viral infections and immune deregulation. 🌐🔍 His groundbreaking work explores how viruses like EBV and HTLV1 disrupt immune checkpoints, DNA damage response, and metabolic pathways to establish latency and drive cancer progression. 🧬🛡️ As a Professor at ETSU’s Quillen College of Medicine and a Scientist at the Mountain Home VA Medical Center, he has led NIH- and DoD-funded research projects focused on long noncoding RNAs, selective autophagy, and oncogenic IRFs. 📚🧪 With over 100 publications and editorial roles across several scientific journals, he is a respected voice in the field. 📖🧠 His mentorship and leadership have significantly contributed to the advancement of viral immunopathology and novel immunotherapeutic strategies. 🌟👨‍🔬

💠Professional Profile

Google Scholar

🎓 Education 

Professor Ning began his academic journey at Wuhan University, China, earning his B.S. in Cell Biology in July 1996. 🎓🔬 He further pursued a Ph.D. in Cell Biology and Genetics at the same institution, which he completed in December 2001. 🧬📘 Driven by a passion for research, he moved to the United States for postdoctoral training in Viral Oncology and Immunology at UNC Chapel Hill, completing it in March 2007. 🇺🇸🧫 His academic path continued with roles as Research Associate and later as Research Assistant Professor at UNC, where he deepened his expertise in host-pathogen interactions, chronic infections, and immune system regulation. 🧠🧪 His education set a strong foundation for a prolific research career at the intersection of virology, immunology, and cancer biology. 🌍📚

💼 Experience 

With over two decades of academic and research excellence, Professor Ning has held significant positions in top institutions. 🏛️🧑‍🔬 Since 2024, he has served as Professor in Internal Medicine at ETSU’s Quillen College of Medicine and a Scientist at the Department of Veterans Affairs in Tennessee. 🇺🇸⚕️ Previously, he held roles as Associate and Assistant Professor at ETSU and the University of Miami’s Sylvester Cancer Center. 🧪📍 He also contributes as Affiliate Assistant Professor at the University of Central Florida. 🧑‍🏫 His leadership extends into the VA system as a WOC employee, reflecting his dedication to veteran health. 🪖❤️ His academic journey spans teaching, mentorship, and pioneering research in viral oncology and immunopathogenesis, making him a pivotal figure in translational medicine. 🔄🎓

🧪 Research Focus 

Professor Ning’s research is anchored in viral immunology and oncogenesis, particularly chronic infections like EBV and HTLV1. 🧫🧬 He explores how these viruses manipulate host immunity via DNA damage response (DDR), autophagy, immune checkpoints, and non-coding RNAs. 🔍🧠 His studies decode how these mechanisms foster viral latency, immune evasion, and cancer transformation. 🦠💥 Key areas include oxidative stress, interferon regulation, and ubiquitin-mediated signaling, revealing novel insights into inflammaging and tumor microenvironments. 🌡️🧪 His translational work identifies new immunotherapeutic targets for virus-associated diseases, especially in hematological malignancies. 🎯🧬 He also pioneers research into lncRNAs’ role in lymphoma development and IRF4 regulation in oncogenesis. 📊🧬 Through innovative methodologies, including phosphoproteomics and transcriptomics, he advances understanding of virus-host interactions, helping bridge molecular mechanisms with therapeutic strategies. 🧪💡

🏅 Awards and Honors 

Professor Ning’s excellence has been recognized through numerous prestigious awards. 🏆🎓 He is a two-time awardee of the American Society of Hematology (ASH), receiving both a Scholarship (2012) and Bridge Grant (2020) for his impactful research. 🔬💰 His accolades include the Leukemia Research Foundation Award (2010), Florida Department of Health New Investigator Award (2010), and an International Professorship Award from the ASM (2009). 🌍📜 Early in his career, he earned the Excellent PhD Thesis Award from both Wuhan University (2003) and China’s Ministry of Education (2005), as well as being named a top graduate student (2002). 🧑‍🎓🌟 His commitment to mentoring and service has also been honored by ASM for outstanding contributions to online mentoring and international programs. 💻🤝 These accolades reflect his scientific impact and dedication to global research advancement. 🌐💡

📘 Publications Top Notes

Guidelines for the Use and Interpretation of Assays for Monitoring Autophagy (4th Edition)

Authors: D.J. Klionsky, A.K. Abdel-Aziz, S. Abdelfatah, M. Abdellatif, A. Abdoli, S. Abel, et al. (including S. Ning)
Journal: Autophagy, Volume 17, Issue 1, Pages 1–382 (2021)
Summary:
This comprehensive and collaborative work offers updated guidelines for monitoring autophagy in both in vivo and in vitro systems. 🧪📚 With contributions from hundreds of experts, including Dr. Ning, it covers key assays, markers, and interpretations critical for studying autophagy accurately. 🔍🧫 These standardized protocols ensure reproducibility across labs and support the effective application of autophagy-related research in fields such as cancer, neurodegeneration, and infectious diseases. 🌍🔬 An essential resource, this publication has become the gold standard for autophagy research worldwide. 🌟

IRF7: Activation, Regulation, Modification and Function

Authors: S. Ning, J.S. Pagano, G.N. Barber
Journal: Genes & Immunity, Volume 12, Issue 6, Pages 399–414 (2011)
Summary:
This review article highlights the central role of IRF7, a key transcription factor in antiviral immunity. 🛡️🧬 Dr. Ning and colleagues discuss its activation pathways, post-translational modifications, and regulatory networks, especially in the context of type I interferon production. ⚙️📊 The paper emphasizes IRF7’s importance in immune responses to viral infections like EBV, and its manipulation by viruses to evade immunity. 🦠⚠️ A valuable resource for understanding host-virus interactions and the molecular immunology of viral pathogenesis. 🧫📖

Salt Stress Induces Programmed Cell Death in Prokaryotic Organism Anabaena

Authors: S.B. Ning, H.L. Guo, L. Wang, Y.C. Song
Journal: Journal of Applied Microbiology, Volume 93, Issue 1, Pages 15–28 (2002)
Summary:
This early study by Dr. Ning explores how salt stress triggers programmed cell death (PCD) in the cyanobacterium Anabaena. 🧂🔬 The research identifies morphological and molecular changes indicative of apoptosis-like pathways, suggesting that even prokaryotes possess regulated death mechanisms under stress. ⚡🧫 This foundational work contributes to the broader understanding of cell death evolution and microbial stress responses. 🌱🧠

TRAF6 and the Three C-terminal Lysine Sites on IRF7 Are Required for Its Ubiquitination-mediated Activation by the Tumor Necrosis Factor Receptor Family Member Latent Membrane Protein 1

Authors: S. Ning, A.D. Campos, B.G. Darnay, G.L. Bentz, J.S. Pagano
Journal: Molecular and Cellular Biology, Volume 28, Issue 20, Pages 6536–6546 (2008)
Summary:
This experimental study details how Epstein-Barr virus (EBV) protein LMP1 activates IRF7 via TRAF6-dependent ubiquitination. 🧬🔁 Dr. Ning and co-authors show that three specific lysine residues on IRF7 are essential for its activation, linking viral oncogenesis with host immune signaling. 🧪⚙️ This discovery sheds light on viral immune evasion and provides targets for antiviral strategies. 🦠💡

Interferon Regulatory Factor 7 Is Negatively Regulated by the Epstein-Barr Virus Immediate-Early Gene, BZLF-1

Authors: A.M. Hahn, L.E. Huye, S. Ning, J. Webster-Cyriaque, J.S. Pagano
Journal: Journal of Virology, Volume 79, Issue 15, Pages 10040–10052 (2005)
Summary:
This research reveals that EBV gene BZLF-1 suppresses the expression and function of IRF7, undermining the host’s antiviral interferon response. 🚫🧬 Dr. Ning contributed to showing how BZLF-1 impairs IRF7-mediated signaling, helping the virus establish latency and avoid immune detection. 🧫👁️ This work provides crucial insight into the immune evasion tactics of herpesviruses and their impact on host immunity. 🧠🦠

Professor Shunbin Ning stands at the forefront of viral immunology and cancer biology, contributing transformative insights into virus-host interactions. 🧬🌍 His pioneering research on EBV, immune regulation, and non-coding RNAs bridges fundamental biology with therapeutic potential. 🎯🧠 His dedication to mentorship, global collaboration, and editorial leadership enriches the scientific ecosystem. 🌱🌐 Through over 100 publications, continuous NIH/DoD-funded projects, and service on international boards and review panels, Professor Ning continues to inspire innovation and excellence in biomedical science. 📚🏅 His work not only deepens our understanding of chronic viral infections but also charts new paths toward immunotherapeutic breakthroughs. 💡💊 A true leader and visionary in his field, he exemplifies the synergy of scientific rigor and clinical relevance. 🧑‍🔬❤️

Yinghe Ma | Surface Engineering | Best Researcher Award

Posted on by Cryogenicist

Dr. Yinghe Ma | Surface Engineering | Best Researcher Award

Director, Zhejiang University of Technology, China

Dr. Yinghe Ma is a dedicated lecturer and master’s supervisor at Zhejiang University of Technology, with a robust academic and research background in materials science and surface engineering. As a committed scholar in the field, Dr. Ma serves in multiple prestigious technical societies, including being a member of the Welding and Surface Engineering Professional Working Committee of the Welding Branch of the Chinese Society of Mechanical Engineering, the Zhejiang Welding Society, and a recognized expert in failure analysis under the Failure Analysis Branch of the same society. With a prolific career spanning over a decade, Dr. Ma has spearheaded and contributed to more than ten national, provincial, ministerial, and enterprise-level projects, while authoring over twenty scholarly articles. His research has resulted in significant intellectual property outputs, including three authorized Chinese invention patents and three publicly disclosed ones. His academic leadership and engineering expertise continue to make a substantial impact on the materials and manufacturing communities.

Professional Profile

Scopus Profile

🎓 Education

Dr. Yinghe Ma pursued comprehensive studies in materials science and engineering, culminating in a doctorate that equipped him with advanced knowledge in surface technology, welding techniques, and failure mechanisms of structural materials. His educational background laid a strong theoretical foundation, complementing his practical engagement in interdisciplinary engineering research. Through rigorous academic training and continued professional development, he has built a knowledge base that supports innovation and problem-solving in both academic and industrial contexts.

💼Experience

Currently a lecturer and master’s supervisor, Dr. Ma plays an instrumental role in mentoring postgraduate students and leading applied research at Zhejiang University of Technology. He is deeply involved in project-based research, often collaborating with industrial partners and academic peers on multi-level projects funded by government agencies and private enterprises. In addition to his teaching duties, he actively contributes to national technical societies, where he helps steer advancements in welding and failure analysis standards. His multifaceted responsibilities also include serving as a subject matter expert in the assessment of component reliability and material degradation.

🔬 Research Interests

Dr. Ma’s research centers on surface engineering, material welding, failure analysis, and reliability evaluation of structural components. His work particularly focuses on how material surfaces behave under extreme environmental and operational stresses, and how welding processes affect mechanical integrity. He combines experimental methods with computational modeling to study the microstructural evolution, phase transformations, and mechanical failures in advanced materials. His insights contribute significantly to industries such as aerospace, automotive, and power generation, where material performance is critical.

📚 Publications Top Notes

Title: Research on Electromagnetic Shielding Performance of Aluminum Coatings on Carbon Fiber Composite Material by HiPIMS
Journal: Vacuum, 2025
Summary:
This study investigates the application of High Power Impulse Magnetron Sputtering (HiPIMS) to deposit aluminum coatings on carbon fiber composites to enhance their electromagnetic shielding effectiveness. The work focuses on coating microstructure, adhesion, and performance in reducing electromagnetic interference, aiming to improve the usability of lightweight composites in electronic and aerospace fields.

Title: Corrosion Mechanism of Electron Beam Remelted Layer of Eutectic High-Entropy Alloy AlCoCrFeNi2.1
Journal: Materials Characterization, 2025
Summary:
This paper examines the corrosion behavior of a eutectic high-entropy alloy AlCoCrFeNi2.1 after electron beam remelting. It analyzes microstructural changes and investigates how these affect corrosion resistance. The study provides insights into the corrosion mechanisms active in remelted HEA layers, valuable for developing durable materials for harsh environments.

Title: The Effect of Pulse Frequency on the Microstructure and Corrosion Resistance of an AZ31B Magnesium Alloy Composite Coating with Electron-Beam Remelting and Micro-Arc Oxidation
Journal: Materials, 2025
Summary:
This research explores how varying pulse frequency during electron-beam remelting combined with micro-arc oxidation influences the microstructure and corrosion resistance of coatings on AZ31B magnesium alloy. Results show the critical role of process parameters in optimizing coating density and protective capabilities against corrosion.

Title: Effect of Micro-Arc Oxidation on Corrosion Resistance of Ti6Al4V Electron Beam Welded Joint
Journal: Surface Technology, 2025
Summary:
This article studies the improvement in corrosion resistance of electron beam welded joints on Ti6Al4V alloy through micro-arc oxidation coating. The work highlights microstructural characterization and corrosion testing, demonstrating that MAO coatings significantly enhance joint durability for aerospace and biomedical applications.

🏆 Conclusion

Dr. Yinghe Ma stands out as an influential academic and engineering professional whose contributions to surface engineering and materials reliability are both profound and practical. His interdisciplinary approach to solving real-world challenges in welding, surface treatments, and failure mechanisms has led to innovations that enhance material performance across industries. Through a blend of theoretical inquiry and hands-on experimentation, he has built a career defined by intellectual rigor and engineering impact. The recognition of his work through journal citations, patents, and professional society roles reflects a career marked by excellence and relevance. As such, Dr. Ma is a deserving candidate for this award nomination, embodying the values of scientific innovation, academic mentorship, and industrial collaboration.

Saidou Kinda | Environmental Engineering | Young Researcher Award

Posted on by Cryogenicist

Mr. Saidou Kinda | Environmental Engineering | Young Researcher Award

Engineer, Istanbul University-Cerrahpaşa, Burkina Faso

Saidou Kinda is a dynamic and forward-thinking doctoral engineer from Burkina Faso, specializing in water and environmental engineering with a dual foundation in civil engineering. Currently pursuing his PhD at Istanbul University-Cerrahpaşa, he also serves as Vice Commercial Advisor at the Turkish Embassy in Ouagadougou, bridging economic and research ties between Turkey and Burkina Faso. With a deep commitment to sustainable infrastructure and international development, Saidou combines technical expertise, global perspective, and multilingual fluency to contribute to innovative solutions in water management, environmental sustainability, and engineering design.

Professional Profile

Google Scholar

🎓 Education

Saidou’s academic journey began at École Saint André de Basneré and continued through Lycée Privé Madina and Lycée Provincial de Kaya. From 2017 to 2022, he completed dual engineering programs in Water & Environmental Engineering and Civil Engineering at Çukurova University, Turkey. His academic excellence led him to Istanbul University-Cerrahpaşa, where he earned a Master’s in Industrial Wastewater Treatment (2022–2024) and is now pursuing a PhD in Water and Environmental Engineering. His education has focused on water treatment, dam design, and sustainable infrastructure for urban and rural environments.

🛠️ Professional Experience

Saidou has held a variety of engineering and advisory roles. At ARTAS, Turkey, he worked as a Project Engineer, contributing to wastewater treatment plant design and dam engineering projects like the Yedigöze Arch Dam. He interned at DSI (State Hydraulic Works) and the Municipality of Adana, engaging in water supply and urban sanitation systems. Currently, as Vice Commercial Advisor at the Turkish Embassy, he supports bilateral trade, project investment, and commercial cooperation between Turkey and Burkina Faso. He has also participated in key infrastructure projects in Ceyhan and Imamoglu, showcasing his capability in both design and implementation.

🔬 Research Interests

Saidou’s research is centered on wastewater treatment technologies, membrane bioreactors (MBR), climate change adaptation, hydraulic infrastructure, and metal pollution in soils. He focuses on optimizing biological treatment strategies for textile wastewater and improving recovery potentials of industrial water through innovative technologies. His doctoral studies expand upon nutrient management and reverse osmosis systems for African contexts, aiming for sustainable, cost-effective solutions to water scarcity and pollution.

📚 Publications Top Notes

Title: Pollution Indices Assessment of Metal Concentrations in Karabuk Soil Samples

Authors: Naim Sezgin, Saidou Kinda, Utku Emre Temelli, Naim Sezgin
Published: International Journal of Agriculture, Environment and Food Sciences
Summary:
This peer-reviewed journal article presents a comprehensive analysis of soil contamination levels in Karabuk, an industrial region in Turkey known for its steel production. Using various pollution indices such as the Geo-accumulation Index (Igeo), Enrichment Factor (EF), and Pollution Load Index (PLI).

Title: Conception de Barrage en Arc (Kemer Baraj Tasarımı)
Author: Saidou Kinda
Institution: Çukurova University, Faculty of Engineering
Type: Final Engineering Project / Graduation Thesis
Date: June 2022
Summary:
This engineering thesis by Saidou Kinda focuses on the complete structural and hydraulic design of an arch dam, taking the Yedigöze Dam in Turkey as a case study.

🔚 Conclusion

Saidou Kinda is a promising figure in the field of environmental engineering, blending academic rigor, technical competence, and international engagement. His multidisciplinary expertise, backed by professional experience and impactful research, positions him as a valuable contributor to the future of water and environmental sustainability in Africa and beyond. Through his leadership and cross-cultural collaboration, he embodies the ideals of innovation, resilience, and global citizenship.

Zhongnan Wang | Mechanical Engineering | Best Researcher Award

Posted on by Cryogenicist

Assoc. Prof. Dr. Zhongnan Wang | Mechanical Engineering | Best Researcher Award

Assoc. Prof. Dr. Zhongnan Wang, Beijing Jiaotong University, China

Dr. Zhongnan Wang is a distinguished academic and researcher specializing in biotribology, micro/nanotribology, and MEMS technology. Currently serving as an Associate Professor at the School of Mechanical, Electronic and Control Engineering, Beijing Jiaotong University, Dr. Wang has developed a reputation for cutting-edge work in advanced hydrogels and material characterization. With dual PhDs and extensive postdoctoral experience, his multidisciplinary approach combines engineering precision with biomedical applications. His research has significantly advanced understanding in friction, wear, and lubrication in biological systems, particularly the development of materials mimicking natural cartilage. Through editorial roles and peer-review contributions, he also plays a vital part in shaping the scientific discourse in his field.

Professional Profile

Scopus Profile
ORCID

🎓 Education

Dr. Wang has an impressive academic foundation, beginning with a Bachelor of Engineering degree from Northeast Agricultural University (2002–2006). He then pursued a Master’s degree at Harbin Institute of Technology (2007–2009), where he deepened his expertise in mechatronic systems. His academic rigor led to a dual-PhD path: one in Mechatronic Engineering from Harbin Institute of Technology (2009–2016), and another in Engineering from the University of Warwick, UK (2012–2017). This dual training in both Chinese and Western academic traditions has enabled him to bridge innovative theoretical knowledge with real-world applications in engineering science.

🧪 Experience

Professionally, Dr. Wang’s career began with a prestigious postdoctoral position at Tsinghua University (2017–2019) in the State Key Laboratory of Tribology in Advanced Equipment, where he focused on tribological behavior in biomedical applications. Since March 2020, he has been contributing as an Associate Professor at Beijing Jiaotong University. His responsibilities span research leadership, teaching, and supervising graduate-level students. Across these roles, Dr. Wang has led several high-impact research projects, collaborated with interdisciplinary teams, and contributed to advancing the university’s reputation in mechanical engineering and materials science.

🔬 Research Interests

Dr. Wang’s primary research areas include biotribology, with a special focus on hydrogel materials that simulate the mechanical and lubrication properties of biological tissues. He also investigates MEMS sensors and actuators, material characterization, and micro/nanotribology. His research stands out for its potential to revolutionize biomedical implants and soft robotics by mimicking the functionality of natural cartilage and other biological interfaces. By integrating nanomaterials like dopamine-modified hydroxyapatite into polymer networks, he has contributed to the development of materials that combine load-bearing capabilities with ultra-low friction.

🏆 Awards and Honors

Dr. Wang’s contributions have earned him several prestigious editorial appointments. He serves as an Associate Editor for the Open Access Journal of Data Science and Artificial Intelligence (since May 2025) and as a Guest Editor for Lubricants (since January 2025). He is also on the Editorial Board of the International Journal of Materials Science and Applications (2024–2027) and a Young Editorial Board Member for Materials Science and Technology (2023–2026). Furthermore, he has been a Topic Editor for Materials since 2021. He is an active reviewer for prominent journals including ACS Applied Materials & Interfaces, Langmuir, PLOS ONE, and Scientific Reports, further underlining his influence in the academic community.

📚Publications Top Notes

A Bilayer Composite Hydrogel with Simultaneous High Load Bearing and Superior Lubrication by Dopamine Modified Nano-Hydroxyapatite

Journal: Surfaces and Interfaces
Authors: Zhongnan Wang, Hui Guo, Ji Zhang, Yi Qian, Fanjie Meng, Yueshan Mu
Summary:
This paper presents a breakthrough in hydrogel-based biomaterials by introducing a bilayer composite hydrogel system that achieves both high load-bearing capacity and low-friction lubrication, which are critical for simulating natural cartilage function. The novelty lies in the integration of dopamine-modified nano-hydroxyapatite (nHA) into the hydrogel matrix.

Low-Friction Hybrid Hydrogel with Excellent Mechanical Properties for Simulating Articular Cartilage Movement

Journal: Langmuir
Authors: Zhongnan Wang, Fanjie Meng, Yue Zhang, Hui Guo
Summary:
This article introduces a hybrid hydrogel engineered for simulating articular cartilage movement, addressing the critical challenge of achieving a balance between mechanical robustness and low-friction behavior. The hydrogel is composed of a dual-network system combining a polyvinyl alcohol (PVA) matrix with a second polymeric or nano-reinforcement network, designed to mimic the viscoelastic and lubricative performance of biological cartilage.

✅ Conclusion

In conclusion, Dr. Zhongnan Wang is a forward-thinking scientist whose interdisciplinary expertise bridges mechanical engineering, material science, and biomedicine. Through advanced research in hydrogels and tribological systems, editorial leadership, and committed academic service, he is advancing the field of biotribology and inspiring the next generation of engineers and researchers. With a consistent record of impactful publications, strategic academic roles, and visionary research, Dr. Wang stands out as a strong candidate for recognition and award nomination in his field.

Dr. Burcin Hazeral | Radiation Oncology | Best Researcher Award

Posted on by Cryogenicist

Dr. Burcin Hazeral | Radiation Oncology | Best Researcher Award

Medical Physicist Ph.D. at Izmir City Hospital, Turkey.

Dr. Burçin Hazeral 🎓 is a dedicated medical physicist from Turkey 🇹🇷 with over 15 years of experience in radiation oncology. She currently serves at İzmir City Hospital 🏥, where she integrates advanced physics into cancer care. A lifelong learner and researcher, Dr. Hazeral has made notable contributions in adaptive radiotherapy, in vivo dosimetry, and cancer treatment planning 🔬📈. Her work bridges clinical application and academic excellence, with several publications in globally recognized SCI and Scopus-indexed journals 🌍📚. Known for her collaborative nature, she works closely with leading oncology centers and contributes to medical advancement through research, innovation, and professional society involvement 🤝💡. Passionate about patient-centered radiation therapy, she brings precision and compassion to every case. With a strong ethical foundation and scientific rigor, Dr. Hazeral continues to shape the future of medical physics and cancer treatment technology 🌟🧠.

Professional Profile

Scopus

ORCID

Google Scholar

Suitability For Best Researcher Award – Dr. Burcin Hazeral

Dr. Burçin Hazeral is an exceptional candidate for the Best Researcher Award due to her outstanding contributions to the field of clinical medical physics, particularly in radiation oncology. With over 15 years of hands-on experience, she has effectively merged clinical expertise with innovative research to improve cancer treatment outcomes. Her research focuses on adaptive radiotherapy, in vivo dosimetry, and dosimetric safety for critical organs, which are central to enhancing precision, safety, and personalization in cancer therapy.

Education 

Dr. Burçin Hazeral’s academic journey began with a Bachelor’s degree in Physics from Ege University in 2006 🎓. She pursued her passion for healthcare by earning a Master of Science in Medical Physics in 2010. Her dedication to continuous learning led her to complete her Ph.D. in Medical Physics in 2024 from the same institution, focusing on innovative radiotherapy techniques. This solid academic foundation empowers her to merge theoretical physics with real-world applications in oncology 🏥📚.

Professional Development 

With a professional journey spanning over 15 years, Dr. Burçin Hazeral has established herself as a leader in the field of medical physics. Working in top-tier oncology centers such as İzmir Onkomer, Ege Oncology, and currently İzmir City Hospital 🏥, she has contributed to clinical excellence in cancer care. Her work involves advanced treatment planning, quality assurance, and integration of imaging and dosimetry into therapy workflows 🔍💻. Dr. Hazeral frequently collaborates with interdisciplinary teams and participates in national societies like the Turkish Society for Medical Physics and the Turkish Society for Radiation Oncology. She regularly presents her work at professional congresses and contributes to peer-reviewed journals, playing a pivotal role in enhancing clinical radiotherapy standards. Committed to safety, precision, and patient-centered care, her career reflects a continuous drive toward innovation, learning, and impactful research 🚀.

Research Focus Area 

Dr. Hazeral’s primary research focus lies in radiation oncology and medical physics, especially in the enhancement of radiotherapy precision through adaptive methods. She specializes in adaptive radiotherapy techniques for head and neck cancers, in vivo dosimetry, and dosimetric analysis for breast, glottic, and brain tumors. Her recent work has explored hippocampal sparing in glioma patients and dose exposure comparisons using simulation-based planning 🖥️📊. This research contributes to optimizing radiation dose delivery, minimizing exposure to healthy tissues, and improving patient outcomes 🙌💡. Her studies integrate imaging, planning software, and real-time feedback, aligning with personalized medicine strategies. By focusing on cancers with complex anatomical and dose delivery challenges, her work bridges innovation with practical clinical improvements. Through her projects, Dr. Hazeral contributes to safer and more effective treatment solutions in the fight against cancer 📈.

Research Skills Category 

Dr. Burçin Hazeral brings a diverse set of advanced research skills rooted in medical physics and radiotherapy innovation 🔬⚙️. She excels in treatment planning systems (TPS), dosimetric modeling, radiation dose measurements, and comparative radiotherapy studies. Her strengths include in vivo dosimetry techniques, real-time dose verification, adaptive planning, and simulation-based methodology development 💡📊. She is proficient in using IMRT (Intensity-Modulated Radiation Therapy) and VMAT (Volumetric Modulated Arc Therapy) systems, particularly in complex cancer scenarios such as head & neck and breast cancers 🎯. Dr. Hazeral is also skilled in statistical data analysis, scientific writing, and interdisciplinary collaboration—enabling robust and clinically relevant research outcomes. Her work frequently combines imaging techniques with radiation science, embodying a skill set that is both technically deep and clinically applicable. These competencies make her a valuable contributor to research, innovation, and evidence-based radiotherapy practices 🌍💻.

Awards and Honors 

While formal award listings are not explicitly provided, Dr. Burçin Hazeral’s scientific contributions and clinical impact speak volumes 🗣️📈. Her published works in top-tier journals such as SpringerPlus, Journal of Cancer Research and Therapeutics, and Medical Dosimetry underscore her recognition in the medical physics community 🏆📚. Her article on hippocampal dose distribution in gliomas has received significant citations, highlighting her scholarly impact 📊💡. As a frequent presenter at national congresses, particularly under the Turkish Society for Radiation Oncology, she is a respected voice in her field 🇹🇷🎙️. Her involvement in collaborative projects across major oncology centers has also positioned her as a thought leader in clinical research 🤝🏥. As her career evolves, she remains a strong candidate for national and international recognition in clinical radiotherapy innovation and patient safety in cancer care 🌟🎖️.

Publication Top Notes 

1. Comparison of dose distributions hippocampus in high grade gliomas irradiation with linac-based IMRT and volumetric arc therapy: a dosimetric study

📚 Citation Count: 30
📅 Year: 2015
📍 Journal: SpringerPlus
👩‍⚕️ Authors: E Canyilmaz, GDH Uslu, F Colak, B Hazeral, etal.
📄 Summary:
This study compared hippocampal dose distributions between two radiotherapy techniques — Linac-based Intensity-Modulated Radiation Therapy (IMRT) and Volumetric Modulated Arc Therapy (VMAT) — in high-grade glioma patients. Results showed that VMAT provided better hippocampal sparing while maintaining effective tumor coverage.
🎯 Research Focus: Hippocampal dose reduction, neurocognitive preservation, glioma treatment planning.

2. Dosimetric evaluation of different radiotherapy techniques in mastectomized left-sided breast cancer

📚 Citation Count: 1
📅 Year: 2023
📍 Journal: Journal of Cancer Research and Therapeutics
👩‍⚕️ Authors: N Olacak, YZ Hazeral, B Hazeral, O Duran, etal.
📄 Summary:
This paper assessed and compared multiple radiotherapy modalities (3DCRT, IMRT, VMAT) in post-mastectomy left-sided breast cancer, focusing on cardiac and pulmonary sparing. VMAT demonstrated superior organ-at-risk sparing with acceptable target coverage.
🎯 Research Focus: Cardiac dose sparing, breast cancer radiotherapy, left-sided irradiation safety.

3. Dosimetric Evaluation of Different Radiation Therapy Techniques in Left-Sided Breast Cancer

📚 Citation Count: 1
📅 Year: 2016
📍 Journal: International Journal of Radiation Oncology, Biology, Physics
👩‍⚕️ Authors: A Haydaroglu, YZ Hazeral, B Hazeral, etal.
📄 Summary:
This study compares 3DCRT and IMRT for left-sided breast cancer in terms of organ-at-risk exposure. Findings indicate IMRT provides improved dose conformity with reduced cardiac doses, suggesting its potential clinical advantages.
🎯 Research Focus: Radiation dose conformity, cardiac protection in breast radiotherapy.

4. Comparison of exposure levels of carotid artery in T1-2 glottic cancer patients undergoing radiotherapy with different modalities: A simulation-based dosimetric study

📚 Citation Count: 1
📅 Year: 2016
📍 Journal: Future Journal
👩‍⚕️ Authors: GH Uslu, E Canyilmaz, F Colak, B Hazeral, etal.
📄 Summary:
The study evaluates carotid artery dose exposure in early-stage glottic cancer patients treated with various radiotherapy techniques. IMRT was shown to significantly reduce carotid dose compared to 2D or conventional 3D approaches.
🎯 Research Focus: Carotid sparing, glottic cancer radiotherapy, vascular protection.

5. Dosimetric evaluation of adaptive radiotherapy in the treatment of head and neck cancer

📅 Year: 2025
📍 Journal: Medical Dosimetry
👩‍⚕️ Authors: B Hazeral, YZ Hazeral, CC Ebruli, V Semiz, M Esassolak
📄 Summary:
This study investigates adaptive radiotherapy in head and neck cancer treatment. It highlights how anatomical changes during treatment affect dosimetry and demonstrates that adaptive planning improves target coverage and spares critical organs over time.
🎯 Research Focus: Adaptive planning, anatomical changes, precision in radiotherapy.

6. The measurement of entrance and exit doses with in-vivo dosimetry in head and neck cancers and comparison with treatment planning doses

📅 Year: 2012
📍 Journal: Turkish Journal of Oncology
👩‍⚕️ Authors: BAA Burçin PAİDAR, Emin TAVLAYAN, Nezehat OLACAK, Mustafa ESASSOLAK
📄 Summary:
This paper measures real-time entrance and exit radiation doses in head and neck cancer patients using in-vivo dosimetry. It compares these with treatment planning system predictions and shows minor deviations, validating planning system accuracy.
🎯 Research Focus: In-vivo dosimetry, quality assurance, radiotherapy verification.

Conclusion

Dr. Burçin Hazeral exemplifies the values of a Best Researcher Award recipient through her innovative, clinically relevant, and patient-focused research. Her ability to translate complex physics into tangible improvements in oncology care, coupled with her academic rigor and collaborative ethos, positions her as a leading medical physicist in Turkey and a rising figure on the global stage. Honoring her would not only celebrate her achievements but also inspire continued excellence in applied cancer research. 🌟

Muhammad Ibrar | Chemical Engineering | Best Researcher Award

Posted on by Cryogenicist

Mr. MUHAMMAD IBRAR | Chemical Engineering | Best Researcher Award 

Mr. Muhammad Ibrar, University of Science and Technology, China

Muhammad Ibrar is an accomplished researcher and academic in the field of chemistry with a particular focus on green nanotechnology, environmental remediation, and biomedical applications of nano-emulsions. He is currently working as a Lecturer in the Department of Chemistry at Lahore Garrison University, Lahore, Pakistan. With years of experience in both teaching and research, he has developed significant expertise in synthesizing nanomaterials and developing innovative strategies for environmental protection and healthcare. Ibrar’s work reflects a commitment to sustainable chemistry solutions that address critical global issues.

Professional Profile

Google Scholar

🎓 Education

Ibrar began his academic journey with distinction, completing his MPhil in Chemistry (2018–2020) from the University of Education, Lahore. His focus included advanced spectroscopy, nano-chemistry, and natural product chemistry. He obtained his BSc in Chemistry from Lahore Garrison University (2014–2018), where he studied a broad spectrum of subjects like organic, inorganic, analytical, and industrial chemistry. His earlier education includes intermediate (2013) and matriculation (2010) from BISE Lahore, both completed with first division and a science focus.

👨‍🏫 Experience

Muhammad Ibrar has served as a Lecturer at Lahore Garrison University since September 2020. Prior to this, he worked as a Chemistry Lecturer at Peak Solutions Group of Colleges (2016–2020), and the Unique Group of Institutes (2018–2019). He was also a Research Associate at the Applied Chemistry Research Centre, PCSIR Lahore (2017–2020), where he contributed to critical research in nanocomposites and environmental remediation. In his current role, he is also actively involved in academic administration and curriculum development.

🔬 Research Interests

Ibrar’s research interests lie at the intersection of nanotechnology, environmental science, and green chemistry. He focuses on the eco-friendly synthesis of nanoparticles, nano-emulsions for therapeutic applications, and nanocomposites for water purification and heavy metal removal. He is also exploring the use of carbon-based materials for energy storage, redox flow batteries, and catalysis. His innovative approaches aim to create multifunctional solutions for pressing challenges such as wastewater contamination, microbial control, and wound healing.

📚 Publications Top Notes

Green Synthesis of Cr₂O₃ Nanoparticles by Cassia fistula

Citation: Yasmeen, G., Hussain, S., Tajammal, A., Mustafa, Z., Sagir, M., Shahid, M., Ibrar, M., et al. (2023). Arabian Journal of Chemistry, 16(8), 104912.
Impact Factor: 3.2
Summary: This study reports an eco-friendly synthesis of Cr₂O₃ nanoparticles using Cassia fistula extract, revealing strong electrochemical and antibacterial potential. The plant-mediated synthesis approach enhances biocompatibility and minimizes environmental impact, making it suitable for biomedical and environmental applications.

Garlic and Ginger Nano-Emulsions for Wound Healing

Citation: Ibrar, M., Ayub, Y., Nazir, R., Irshad, M., Hussain, N., Saleem, Y., & Ahmad, M. (2022). Saudi Pharmaceutical Journal, 30(12), 1700–1709.
Impact Factor: 4.56
Summary: This research formulates garlic and ginger essential oil-based nano-emulsions incorporated with neomycin. The product demonstrated accelerated healing and anti-inflammatory effects in skin wound models. It provides a novel, natural, and effective alternative to conventional treatments for skin injuries.

Clay-Based Nanocomposites for Water Purification

Citation: Fareed, F., Ibrar, M., Ayub, Y., Nazir, R., & Tahir, L. (2019). In Advanced Research in Nanosciences for Water Technology, pp. 217–248.
Impact Factor: ~2.1 (Book Chapter)
Summary: This comprehensive book chapter investigates the role of clay-based nanocomposites as cost-effective and efficient materials for water treatment. The authors provide an in-depth analysis of mechanisms, synthesis strategies, and practical applicability in purifying contaminated water.

Biochar-Based Nanocomposite for Heavy Metal Removal

Citation: Khalid, S., Chaudhary, M. N., Nazir, R., Ahmad, S. R., Hussain, N., Ayub, Y., & Ibrar, M. (2023). PLOS One, 18(9), e0289069.
Impact Factor: 4.75
Summary: This article presents a novel biochar-supported metallo-inorganic nanocomposite synthesized via a green approach. It effectively removes toxic heavy metals such as lead and chromium from water systems, contributing to the development of sustainable water purification methods.

Electrodialysis Using Modified Membranes

Citation: Ahmad, M., Hussain, S., Abid, M. A., Mumtaz, A., Ibrar, M., & Muhammad, S. (2022). Journal of Membrane Science and Research, 8(1).
Impact Factor: ~2.2
Summary: This study explores the fabrication of ultrathin anion-exchange coatings on cation-exchange membranes to enhance water dissociation in electrodialysis. The research introduces a novel bipolar junction concept for improving desalination efficiency and clean water production.

🎯 Conclusion

Muhammad Ibrar stands out as a dedicated and innovative chemist, whose work addresses critical needs in public health and environmental safety through green chemistry and nanotechnology. His selected publications demonstrate both scientific rigor and real-world applicability. With a growing citation record and active research contributions, he continues to make significant strides toward sustainable scientific solutions and is a deserving candidate for recognition in academic and research excellence.

liang zou | Microgrid system | Best Academic Researcher Award

Posted on by Cryogenicist

Mr. liang zou | Microgrid system | Best Academic Researcher Award

professor, Shandong University, China

Professor Zou Liang is a leading scholar in the field of electrical engineering, currently serving as the Director of the Institute of Electrical Theory and New Technology at the School of Electrical Engineering, Shandong University. He holds the titles of professor and doctoral supervisor and has made significant contributions to high voltage and insulation technology. He has been recognized through numerous national and provincial honors, including selection for China’s National Youth Talent Program, designation as a leading talent in innovation and entrepreneurship in Jiangsu Province, and acknowledgment as an outstanding young and middle-aged scholar at Shandong University. He holds key professional roles such as committee member of the China Electrotechnical Society’s Energy Storage Systems and Electromagnetic Compatibility Committees, expert contributor to the “Light of Electric Power” initiative, and serves as director of the Shandong Electrotechnical Society. As an IEEE member and frequent reviewer for prestigious journals, Professor Zou has established a distinguished academic presence nationally and internationally.

Professional Profile

ORCID

🎓 Education

Professor Zou Liang received a comprehensive education in electrical engineering, culminating in a doctoral degree that laid the foundation for his specialized focus in high voltage engineering and new insulation technologies. His academic training emphasized both theoretical and applied research, which he has continuously advanced throughout his career. As an educator, he teaches undergraduate courses such as Fundamentals of Electrical Engineering (High Voltage Section) and Power System Grounding Technology, and a graduate-level course on Online Monitoring and Fault Diagnosis of Electrical Equipment, demonstrating his strong integration of teaching and research.

💼 Experience

From March 2021 to March 2023, Professor Zou served as the Director of the Mobile Program for Electrical Science and Engineering under the National Natural Science Foundation of China. His leadership experience extends to national-level research programs, where he has successfully managed complex, multidisciplinary projects. With over a decade of involvement in electrical engineering innovation, he has coordinated major government and industry-funded projects, collaborated across institutions, and provided technical consulting for the development of cutting-edge power system technologies.

🔬 Research Interests

Professor Zou’s research centers on the high-frequency discharge and electromagnetic optimization of new energy equipment, as well as the regulation and modification of high-performance insulation materials. His work bridges theoretical modeling and practical applications, including micromagnetic simulations, plasma degradation methods, and molecular dynamics studies of advanced composite materials. A pioneer in the field, he is particularly noted for advancing knowledge in nanocrystalline soft magnetic materials and for developing interdisciplinary methodologies that combine physics, materials science, and power systems engineering.

📚 Publications Top Notes

Micromagnetic Simulation of Saturation Magnetization of Nanocrystalline Soft Magnetic Alloys under High-Frequency Excitation

Authors: K. Guo, L. Zou*, L. Dai, et al.
Published in: Symmetry, Volume 14, Issue 7, Article 1443, Year: 2022
DOI: [Available upon request]
Summary:
This paper presents a micromagnetic simulation approach to analyze the saturation magnetization behavior of nanocrystalline soft magnetic alloys when exposed to high-frequency excitation fields.

Molecular Dynamics Simulation of the Influence of Functionalized Doping on Thermodynamic Properties of Cross-Linked Epoxy/Carbon Nanotube Composites

Authors: M. Ding, L. Zou*, L. Zhang, T. Zhao, Q. Li
Published in: Transactions of China Electrotechnical Society, Volume 36, Issue 23, Pages 5046–5057, Year: 2021
Summary:
This research employs molecular dynamics (MD) simulations to evaluate the thermodynamic properties of epoxy/carbon nanotube (CNT) composites subjected to various functionalized doping techniques.

A Review on Factors That Affect Surface Charge Accumulation and Charge-Induced Surface Flashover

Authors: M. Yuan, L. Zou*, Z. Li, L. Pang, T. Zhao, L. Zhang, J. Zhou, P. Xiao, S. Akram, Z. Wang, S. He
Published in: Nanotechnology, Volume 32, Issue 26, Year: 2021
Summary:
This comprehensive review article explores the various physical, chemical, and environmental factors that influence surface charge accumulation and the onset of flashover in insulating materials. The authors categorize the influence of surface morphology, humidity, material defects, electric field distribution, and charge mobility.

Investigation of Non-Thermal Atmospheric Plasma for the Degradation of Avermectin Solution

Authors: Y. Lv, L. Zou*, H. Li, Z. Chen, X. Wang, Y. Sun, L. Fang, T. Zhao, Y. Zhang
Published in: Plasma Science and Technology, Volume 23, Issue 5, Year: 2021
Summary:
This study examines the degradation efficiency of non-thermal atmospheric plasma (NTAP) on avermectin, a commonly used pesticide, in aqueous solutions. The paper analyzes plasma-induced chemical reactions, energy transfer mechanisms, and byproduct formation.

Influence of the External and Internal Factors on Saturation Magnetization Process for Nanocrystalline Alloy

Authors: Liang Zou, Jiale Wu, Zhiyun Han, et al.
Published in: IEEE Transactions on Magnetics, Volume 54, Issue 10, Article 7205708, Year: 2018
Summary:
This paper investigates how both intrinsic factors (such as atomic structure and grain size) and extrinsic conditions (such as applied magnetic field and temperature) affect the saturation magnetization of nanocrystalline magnetic alloys.

🔚 Conclusion

Professor Zou Liang’s academic and research excellence, coupled with his visionary leadership in engineering innovation, marks him as a distinguished contributor to the field of electrical engineering. His work not only addresses critical scientific challenges in high voltage and insulation technology but also offers practical solutions that advance energy system reliability and environmental safety. Through rigorous scholarship, prolific publication, and dedicated service to professional societies, he continues to set a standard for excellence in science, technology, and education.

Clara Mata | Liquid Hydrogen | Best Researcher Award

Posted on by Cryogenicist

Dr. Clara Mata | Liquid Hydrogen | Best Researcher Award

Senior Advanced Application Engineer, 3M Company, United States

Clara Mata is a distinguished Senior Specialist Application Engineer with over 25 years of experience in applied research and development, primarily at the forefront of energy-related technologies. Her multifaceted career spans critical sectors such as oil and gas, mining, and, more recently, the rapidly evolving field of liquid hydrogen energy. With a robust foundation in fluid dynamics, heat transfer, and solids mechanics, Clara has consistently driven innovation by combining experimental techniques with advanced modeling. Her work is marked by a strong customer-oriented approach and interdisciplinary collaboration, making her a pivotal figure in transforming engineering solutions into commercially viable technologies at 3M. She is also a prolific contributor to patents and peer-reviewed publications, showcasing her commitment to advancing science through practical application.

Professional Profile

🎓 Education

Clara Mata holds a Ph.D. in Fluid Mechanics from the University of Minnesota – Twin Cities (1994–1998), where she developed a strong foundation in transport phenomena and experimental fluid mechanics. She began her academic journey with a Bachelor’s degree in Mechanical Engineering from Universidad Simón Bolívar in Caracas, Venezuela (1984–1990). This rigorous education provided the technical depth and analytical rigor that continue to define her engineering work today.

🛠️ Professional Experience

Clara began her professional career as a Senior Research Scientist at PDVSA-Intevep in Venezuela, where she led experimental modeling of particle transport, gas-liquid flow in pipelines, and the rheological characterization of complex fluids like Orimulsion®. She collaborated with CNRS on micellar solutions and surfactant mixing processes. Transitioning to the U.S., she served as a Postdoctoral Associate at the University of Minnesota from 2006 to 2008, focusing on diffusion-based extraction in microfluidic systems and teaching mechanics courses. She then joined 3M as a Research Scientist (2008–2009), leading fluid flow experiments in oil and gas applications. Since 2010, Clara has served as a Senior Advanced Application Engineer at 3M, where she has made groundbreaking contributions to cryogenic storage technologies, lightweight cements, and energy sector innovations.

🔬 Research Interests

Clara’s research centers on fluid dynamics, thermal conductivity, multiphase flows, cryogenic insulation, and the mechanical behavior of engineered materials under extreme conditions. Her recent focus on the thermal behavior of insulation materials in liquid hydrogen storage has contributed to safer and more efficient energy solutions. Clara is particularly interested in translating fundamental physics into scalable, field-ready applications in energy and sustainability.

📚 Publications Top Notes

Title: Validating Effective Thermal Conductivity of Glass Microspheres in Cryogenic Storage Insulation via Finite Element Analysis
Author: Clara Mata
Published in: CEC/ICMC, 2025
Summary: Finite element analysis confirms glass microspheres’ thermal performance, aiding material selection for efficient cryogenic hydrogen tank insulation systems.

Title: Study of the Evacuation of Gas in Bulk-Fill Insulation Materials Used in Large-Scale LH₂ Storage Tanks
Author: Clara Mata
Published in: Journal Volume 97, pp. 1498–1506, 2025
Summary: Investigates gas evacuation behavior in cryogenic insulation, enhancing thermal performance in large-scale liquid hydrogen storage tanks.

Title: Survival of Hollow Glass Microspheres in Drilling Fluids Applications – Effect of the Drill Bit/Formation Contact
Author: Clara Mata
Published in: Journal of Petroleum Science & Engineering, Vol. 189, 106966, 2020
Summary: Assesses microsphere durability during drilling, optimizing materials to improve performance in aggressive subsurface environments.

Title: Carbon Nanotubes Reinforced Lightweight Cement Testing Under Triaxial Loading Conditions
Author: Clara Mata
Published in: Journal of Petroleum Science and Technology, Vol. 174, pp. 663–675, 2019
Summary: Explores how carbon nanotubes enhance lightweight cement strength, promoting safer operations in downhole high-stress environments.

Title: Drilling Fluid Density and Hydraulic Drag Reduction with Glass Bubble Additive
Author: Clara Mata
Published in: Journal of Energy Resources Technology, ASME, Vol. 139(4), 042904, 2017
Summary: Demonstrates how glass bubbles reduce fluid density and drag, improving energy efficiency in oil and gas drilling processes.

🏆 Conclusion

Clara Mata’s career exemplifies the highest standards of applied engineering research, translating scientific rigor into real-world solutions that advance energy technologies and industrial innovation. Her ability to span multiple disciplines, from cryogenics to drilling fluids, and her consistent output of impactful patents and publications underscore her unique contributions to science and industry. Through leadership, deep technical knowledge, and a commitment to collaboration, Clara has earned her place as a frontrunner for the Best Academic Researcher Award. Her work not only addresses present-day challenges but also lays a foundation for future advancements in sustainable and efficient energy systems.

Ahmed ElMahalawy | Spotlights | Best Academic Researcher Award

Posted on by Cryogenicist

Assoc. Prof. Dr. Ahmed ElMahalawy | Spotlights | Best Academic Researcher Award

Assoc. Prof. Dr. Ahmed ElMahalawy, Suez Canal University, Egypt

Ahmed Mohamed El-Sayed Mohamed El-Mahalawy is an accomplished Associate Professor of Physics at the Faculty of Science, Suez Canal University, Egypt. With deep expertise in experimental solid-state physics, particularly organic thin films for optoelectronic and solar cell applications, Dr. El-Mahalawy has established himself as a significant contributor to materials science and photodetector technology. His career spans extensive academic teaching, impactful research, and participation in global conferences and workshops, all of which underscore his commitment to scientific innovation and education.

🔹Professional Profile

🎓 Education

Dr. El-Mahalawy’s academic foundation is rooted in the Suez Canal University, where he earned his BSc in 2010, MSc in 2015, and PhD experimental solid-state physics. His doctoral work titled “Study of Some Physical Properties of Copper (II) Acetylacetonate Thin Films and Their Optoelectronic Applications” reflects his early focus on exploring materials for future energy and sensor technologies. His master’s thesis investigated 1,4,5,8 Naphthalene Tetracarboxylic Dianhydride Thin Films, while his undergraduate project examined spectroscopic properties of doped polyvinyl alcohol films. These research efforts laid a strong foundation for his current trajectory in optoelectronics and nanomaterials.

👨‍🏫 Experience

Since joining Suez Canal University, Dr. El-Mahalawy has served across multiple instructional roles, beginning as a teaching assistant and ascending to Associate Professor in 2024. He has taught an expansive range of courses, including Experimental Physics, Semiconductor Physics, Advanced Solid State Physics, Electronic and Optical Properties of Nanomaterials, and Biophysics. He has also contributed to postgraduate and diploma-level programs, particularly within the Arab Academy for Science, Technology & Maritime Transport. His teaching excellence is complemented by his participation in curriculum design, digital education tools, and quality management in higher education.

🔬 Research Interests

Dr. El-Mahalawy’s research interests are centered around thin-film materials, organic-inorganic hybrid systems, nanostructured semiconductors, and optoelectronic devices. His investigations primarily target the development of next-generation photodetectors, solar cells, and functional electronic materials. He is particularly interested in doping effects, plasma treatments, and material characterizations that lead to optimized optical and electronic properties.

📚Publications Top Notes

🔹Unveiling of novel synthesized coumarin derivative for efficient self-driven hybrid organic/inorganic photodetector applications

Authors: A.R. Wassel, E.R. El-Sawy, A.M. El-Mahalawy
Summary: Synthesized coumarin-based compound enhances hybrid photodetector performance with self-powered and efficient photoresponse.

🔹Exploration of doping-dependent structural, optical, and electrical properties of thermally evaporated CdSe thin films for improved photodetection performance

Authors: A.R. Wassel, S.A. Mansour, F.M. Mohamed, A.M. El-Mahalawy
Summary: Cd doping improves CdSe thin films’ structure and optoelectronic behavior for better photodetectors.

🔹 Exploitation of plasma treatment-assisted monocarboxylic cobalt phthalocyanine nanorod growth for high-efficiency photodetection applications

Authors: A.M. El-Mahalawy, M.A. Abd El‑Ghaffar, W. Abbas, A.R. Wassel
Summary: Plasma-guided nanorod growth enhances photodetector sensitivity, morphology, and overall optoelectronic performance.

🔹Controllability of optical, electrical, and magnetic properties of synthesized Cd-doped MgFe₂O₄ nanostructure

Authors: S.E. Ali, A.A. Marzouk, H. Abdel-Khalek, A.M. El-Mahalawy
Summary: Cd-doped MgFe₂O₄ nanostructures exhibit tunable properties for sensing and magnetic device applications.

🔹Appreciably optimization of PVA/PVP nanocomposite blend for enhanced optoelectronics properties and multifunctional applications

Authors: A.M. El-Mahalawy, M.M. Abdrabou, S.A. Mansour, F.M. Ali
Summary: Optimized PVA/PVP blend shows improved conductivity, flexibility, and stability for flexible electronic devices.

🏆 Conclusion

Dr. Ahmed El-Mahalawy exemplifies the integration of scholarly rigor and practical innovation. Through his contributions to photodetector design, material optimization, and physics education, he has built a distinguished academic profile marked by high-impact publications and international engagement. His ongoing commitment to advancing optoelectronic material science, combined with his mentorship of students and leadership in academic development, make him an outstanding nominee for recognition in scientific excellence awards. His work not only advances fundamental knowledge but also contributes directly to emerging technologies in sustainable electronics and sensor design.