Edoh Nicodème GABIAM | Molecular Mechanisms Signaling | Young Scientist Award

Mr. Edoh Nicodème GABIAM | Molecular Mechanisms Signaling | Young Scientist Award

Mr. Edoh Nicodème GABIAM, Ankara University, Turkey

Edoh Nicodème GABIAM is a dedicated Master’s student in Analytical Chemistry at Ankara University, Turkey, originally from Togo. Born on December 31, 1999, he holds a Bachelor’s degree from Lomé University and is currently expanding his expertise in electrochemical sensor development, nanotechnology, and pharmaceutical analysis. His research is centered on designing novel analytical methods for detecting active pharmaceutical ingredients in biological fluids and complex matrices. Passionate about scientific innovation, Edoh is involved in multiple research projects that integrate nanomaterials, biosensors, and environmental chemistry. His work has been published in internationally recognized journals, and he actively collaborates with multidisciplinary teams. Fluent in French, Turkish, and English, Edoh is known for his adaptability, cross-cultural teamwork, and deep commitment to research excellence. His long-term vision is to contribute significantly to therapeutic drug monitoring, quality control, and environmental sustainability using smart sensor technologies.

Publication Profile: 

Scopus

Strengths for the Award:

  1. 🎓 Strong Academic Background
    Edoh holds a Bachelor’s degree in Analytical Chemistry from Lomé University (Togo) and is currently pursuing a Master’s degree at Ankara University (Turkey), demonstrating a steady and focused academic progression in the field.

  2. 🔬 Specialized Research Focus
    His research centers on analytical method development, nanomaterials, biosensors, and electrochemical detection of pharmaceutical compounds, which are cutting-edge and high-impact areas in modern analytical science.

  3. 🧪 Practical Laboratory Experience
    He has undertaken industry internships at CIMTOGO and SCAN-TOGO (Heidelberg Materials) and is now part of active research teams at Ankara University, applying advanced techniques like XRD, UV-Vis spectroscopy, and potentiostat systems.

  4. 🌐 International Exposure and Multilingual Proficiency
    With academic training in both Africa and Europe, and fluency in French, Turkish (C1), and English (B2), he is equipped to collaborate internationally and work across diverse scientific environments.

  5. 📄 Peer-Reviewed Publications
    With three publications in reputable international journals (ACS Omega, Journal of Electroanalytical Chemistry, and ChemistrySelect), Edoh has proven his ability to contribute to the global scientific literature.

  6. 🔍 Research Diversity
    His work spans multiple disciplines including electroanalytical chemistry, environmental monitoring, nanobiotechnology, and therapeutic drug monitoring, reflecting a comprehensive and adaptable research profile.\

🛠️ Areas for Improvement:

  1. 📢 Scientific Communication
    While Edoh is published, presenting at international conferences, participating in workshops, or contributing to scientific forums would increase his visibility and professional network.

  2. 👥 Mentorship and Outreach
    Future involvement in mentoring junior students, teaching assistantships, or community science outreach could strengthen his leadership and communication skills.

  3. 📊 Data Science Integration
    Incorporating computational tools, such as data analytics, machine learning, or chemometrics, could further enhance the sophistication of his sensor research.

🎓 Education:

Edoh GABIAM began his academic journey at Lomé University, Togo, where he earned a Bachelor’s degree in Analytical Chemistry in 2021. During this period, he acquired foundational knowledge in chemical analysis, environmental chemistry, and instrumentation. In 2023, he enrolled in the Master’s program in Analytical Chemistry at Ankara University, Turkey, one of the region’s leading institutions for pharmaceutical sciences. His education is enhanced by his dual affiliation with the Faculty of Pharmacy and The Graduate School of Health Sciences, where he is deeply engaged in laboratory research. His Master’s program emphasizes electroanalytical techniques, nanomaterial synthesis, and biosensor design for real-world applications such as drug detection, pollutant removal, and therapeutic monitoring. The combination of African and European academic exposure gives him a unique perspective and diverse methodological skills. Edoh’s academic path reflects not just academic excellence but also a commitment to solving global health and environmental challenges through chemistry.

🧪 Experience:

Edoh GABIAM’s practical laboratory experience started with an internship at CIMTOGO (June–September 2021), where he contributed to industrial quality control procedures. He expanded this foundation during a subsequent internship at SCAN-TOGO (Heidelberg Materials) from April to September 2022, where he gained hands-on skills in materials analysis and cement chemistry. Currently, as a Master’s student at Ankara University, Edoh is actively involved in research projects focusing on electrochemical sensors, nanocomposites, and biosensors for pharmaceutical and environmental applications. His work includes the synthesis and application of nanomaterials like NiSe₂/Mo-MOF and Co/Co₃O₄ composites. He operates advanced instruments such as potentiostats, UV-Vis spectrophotometers, and XRD systems. His international academic background, technical competence, and collaborative spirit have made him an asset in multidisciplinary teams. Edoh’s work not only contributes to scientific knowledge but also addresses critical issues such as drug quality control, early disease diagnosis, and pollutant detection.

🔍 Research Focus:

Edoh GABIAM’s research lies at the intersection of analytical chemistry, nanotechnology, and biosensor development. He specializes in the electrochemical detection of pharmaceutical agents in both biological and environmental samples. His primary focus is the development of nanomaterial-based sensors using materials like metal-organic frameworks (MOFs), layered double hydroxides, and quantum dots. These sensors aim for ultra-sensitive detection of drugs such as dolutegravir, afatinib, and cariprazine, targeting applications in therapeutic drug monitoring, quality assurance, and early disease diagnostics. Edoh also explores environmental remediation, particularly through the removal of pollutants using nanomaterials. His scientific interests include surface chemistry, DNA–drug interactions, and conductive polymers in sensor applications. He is passionate about addressing real-world problems using chemistry, including food and drug analysis, nanobiotechnology, and biosensor integration for medical diagnostics. Edoh’s research reflects a strong alignment with current global health and environmental priorities.

🧾 Publications Top Notes:

  1. 🧪 Synthesis of Co/Co₃O₄ Heterostructure in N-Doped Porous, Amorphous Carbon: A Superior Electrochemical Sensor for Sensitive Determination of Alectinib in Various Fluids
    [🔗 DOI: 10.1021/acsomega.4c04821]

  2. 🧬 Synthesis of NiSe₂/Mo-MOF Nanocomposite for Sensitive Determination of Antiretroviral Agent Dolutegravir in Pharmaceutical Formulations and Biological Fluids
    [🔗 DOI: 10.1016/j.jelechem.2025.119096]

  3. 💊 Development of a Highly Sensitive Electrochemical Sensor for Detecting the Antipsychotic Agent Cariprazine in Pharmaceutical Capsules and Biological Fluids Using Boron Nitride Quantum Dots
    [🔗 DOI: 10.1002/slct.202500548]

🏁 Conclusion:

Edoh Nicodème GABIAM is a highly promising early-career researcher with a strong foundation in analytical chemistry and a focus on innovative applications of nanomaterials and electrochemical sensors. His technical skills, multidisciplinary research experience, international education, and publication record clearly demonstrate his capability and commitment to advancing science. Given his accomplishments at a young age and the relevance of his research to pressing global health and environmental challenges, he is an excellent candidate for the Research for Young Scientist Award. With continued mentorship and expanded engagement in global scientific networks, Edoh is poised to make a meaningful impact in the field.

Xue Xiao | Molecular Mechanisms Signaling | Best Researcher Award

Ms. Xue Xiao | Molecular Mechanisms Signaling | Best Researcher Award

Ms. Xue Xiao, Southwest Minzu University, China

Xue Xiao is a passionate and dedicated researcher specializing in fluorescence-based methodologies for biochemical applications. With a Master’s degree in hand from Southwest University in 2017, she has since contributed to the academic and scientific community as an experimental teacher at Southwest Minzu University. Her innovative approach integrates advanced fluorescence techniques—such as fluorescence anisotropy and FRET—with emerging nanomaterials like graphene oxide to explore complex biochemical mechanisms. Xue’s work not only advances fundamental understanding but also leads to practical biosensing technologies with real-world applications, such as disease diagnostics and cellular imaging. She has co-authored several impactful papers and is known for her collaborative spirit, meticulous methodology, and problem-solving mindset. Her academic journey reflects a consistent pursuit of excellence and innovation. With her outstanding research contributions and strong pedagogical engagement, she is a deserving candidate for the Best Researcher Award.

Publication Profile:

Scopus

Strengths for the Award:

  1. Strong Academic Foundation:
    Xue Xiao earned her master’s degree from Southwest University in 2017, providing a solid grounding in chemical and biochemical sciences.

  2. Consistent Academic Commitment:
    Since 2017, she has served as an Experiment Teacher at Southwest Minzu University, consistently engaging in both education and research, fostering future scientists while contributing to the scientific community.

  3. Specialized Research Expertise:
    Her main research focuses on fluorescence methodologies, including fluorescence anisotropy and fluorescence resonance energy transfer (FRET), applied to complex biochemical problems in vitro and in living cells.

  4. Innovative Publication:
    In 2025, she co-authored a research article titled “Integrating graphene oxide with an enzyme-free DNA circuit for the development of universal fluorescence biosensor” published in the Microchemical Journal, demonstrating innovation at the interface of nanotechnology and biosensing.

  5. Applied Relevance:
    Her research holds strong translational potential in biosensor development, molecular diagnostics, and real-time intracellular imaging.

🔄 Areas for Improvement:

  • International Collaboration: Encouraged to build broader collaborations with global research institutions to increase the impact and visibility of her work.

  • Research Dissemination: Participation in more international conferences and symposia would help in wider dissemination of her research findings.

  • Patent and Industry Linkages: Exploring patentable technologies or partnerships with biotech firms could enhance the practical applications of her research.

🎓 Education:

Xue Xiao pursued her higher education with a strong focus on biochemical sciences. She earned her Master’s degree from Southwest University in 2017, where she developed a foundational understanding of chemical biology and fluorescence spectroscopy. During her academic training, she exhibited a strong inclination toward interdisciplinary research, merging principles of chemistry, biology, and physics to study molecular interactions. Her education was marked by rigorous training in laboratory techniques, particularly fluorescence-based analytical tools, which later became central to her research career. Throughout her studies, she was recognized for her diligence, curiosity, and analytical skills. Her graduate work laid the foundation for her later contributions to biosensor technology, especially in the integration of novel nanomaterials for biological detection. Her academic background continues to inform her research trajectory and positions her as a leading figure in innovative fluorescence methodology applications.

🧪 Experience:

Since 2017, Xue Xiao has held the position of Experiment Teacher at Southwest Minzu University, where she combines research with academic instruction. In this role, she has mentored students, designed experimental curricula, and led laboratory-based teaching in biochemical methods. Her work focuses on practical applications of fluorescence methodologies in both in vitro and cellular contexts, fostering hands-on learning and encouraging experimental rigor. Over the years, she has cultivated a reputation as a skilled mentor and collaborative researcher. Her role also involves contributing to interdisciplinary projects, securing research grants, and co-authoring scholarly publications. Xue brings a unique blend of technical expertise and educational commitment, ensuring her lab is a space of discovery and skill development. Her continuous engagement in experimental teaching has allowed her to stay at the forefront of biochemical technologies while nurturing the next generation of scientists.

🔬 Research Focus:

Xue Xiao’s primary research lies at the intersection of fluorescence spectroscopy and biosensing technology. She specializes in the application of fluorescence anisotropy and fluorescence resonance energy transfer (FRET) to understand biomolecular interactions, dynamics, and structures. Her work extends into living cells, enabling real-time, high-resolution observation of biochemical phenomena. Notably, she explores the integration of graphene oxide (GO) with enzyme-free DNA circuits to create universal fluorescence biosensors capable of detecting a wide range of biological targets. This fusion of nanotechnology and molecular diagnostics has positioned her as an emerging innovator in the field. Her research not only enhances analytical sensitivity and specificity but also opens avenues for point-of-care diagnostics and intracellular imaging. Xue Xiao’s contributions significantly advance our understanding of biomolecular mechanisms while pushing the boundaries of biosensor development. Her work has broad applications in disease diagnosis, drug delivery, and personalized medicine.

📚 Publications Top Notes:

🔬 Integrating graphene oxide with an enzyme-free DNA circuit for the development of universal fluorescence biosensorMicrochemical Journal, 2025

🧾 Conclusion:

Xue Xiao exemplifies the qualities of a rising scientific leader—innovative, dedicated, and deeply rooted in both theoretical and applied research. Her contributions to the field of fluorescence-based biosensing and her educational role at Southwest Minzu University make her a highly suitable and deserving candidate for the Best Researcher Award. Her work addresses both fundamental scientific questions and real-world diagnostic needs, embodying the spirit of impactful, interdisciplinary research.

Gang Wang | Molecular Mechanisms Signaling | Best Researcher Award

Prof. Gang Wang | Molecular Mechanisms Signaling | Best Researcher Award

Prof. Gang Wang , the First Affiliated Hospital of Harbin Medical University, China

Professor Wang Gang, MD, Ph.D., is a renowned general surgeon, postdoctoral researcher, and director of the Department of Oncology and Laparoscopy Surgery at The First Affiliated Hospital of Harbin Medical University, China. Specializing in pancreatic diseases, he is a prominent researcher and educator, with a focus on acute pancreatitis. He has contributed extensively to translational research, bridging molecular mechanisms to clinical innovations. As a high-level talent in Heilongjiang Province, he has published 166 works, including high-impact studies on ferroptosis and necroptosis in pancreatic diseases. With multiple editorial roles and leadership in various academic associations, Professor Wang continues to drive interdisciplinary advances in pancreatic disease management and surgery.

Publication Profile:

Google Scholar

Strengths for the Award:

Professor Wang Gang has demonstrated exceptional contributions to the field of pancreatic diseases, particularly in acute pancreatitis. His groundbreaking research on ferroptosis, necroptosis, and mitochondrial autophagy has resulted in a significant body of work with over 166 publications, many of which are high-impact studies. As a Principal Investigator, he has successfully led multiple National Natural Science Foundation projects, contributing innovative diagnostic and therapeutic strategies that have advanced the management of pancreatic diseases. His editorial roles in prominent journals and his collaborations with pharmaceutical companies reflect his recognition as a leader in the field. Moreover, his numerous provincial awards, including the Heilongjiang Science & Technology Progress First Prizes, further affirm his leadership and expertise.

Areas for Improvements:

While Professor Wang has achieved great success in pancreatic disease research, his work could benefit from expanding into interdisciplinary collaborations with other medical specialties to further enhance the clinical translation of his findings. Additionally, increasing the international visibility of his work through more international collaborations or partnerships could amplify its impact.

Education:

Professor Wang Gang holds both an MD and a Ph.D., specializing in general surgery. He completed his advanced postdoctoral training focusing on pancreatic diseases and advanced laparoscopic techniques. His rigorous academic journey has laid a strong foundation for his successful career in research, clinical practice, and teaching. Professor Wang’s educational experience reflects his deep commitment to advancing both his academic qualifications and medical expertise, leading to his leadership roles in multiple professional organizations and the development of several groundbreaking research projects in pancreatic health.

Experience:

Professor Wang has extensive clinical and research experience in pancreatic diseases. He serves as the Director of the Department of Oncology and Laparoscopy Surgery at The First Affiliated Hospital of Harbin Medical University. His research interests revolve around the pathogenesis and treatment of acute pancreatitis and other pancreatic disorders. In addition to his clinical role, he is a prolific academic leader, mentoring doctoral and postdoctoral researchers. With over 166 publications, he has led significant projects funded by the National Natural Science Foundation and has collaborated with top pharmaceutical companies. He has also served in prominent editorial and peer reviewer roles for many scientific journals, solidifying his influence in the research community.

Awards and Honors:

Professor Wang Gang has received numerous prestigious awards, including multiple Heilongjiang Science & Technology Progress First Prizes (2024, 2021). As a High-Level Talent of Heilongjiang Province and Outstanding Talent of Heilongjiang New Century, he is recognized for his outstanding contributions to medical research. His work has also earned him multiple accolades for his leadership and research excellence. As a principal investigator, he has received several National Natural Science Foundation grants, marking him as a leading figure in the field of pancreatic diseases. His success reflects his commitment to advancing medical science and improving patient outcomes, particularly in pancreatic diseases.

Research Focus:

Professor Wang’s research primarily focuses on the molecular mechanisms underlying pancreatic diseases, including acute pancreatitis and pancreatic cancer. His work has identified key molecular pathways, such as ferroptosis and necroptosis, in the progression of these diseases. His translational research connects basic science with clinical applications, optimizing surgical protocols and diagnostic tools. His studies on mitochondrial dysfunction, autophagy imbalance, and exosomal crosstalk provide novel insights into disease pathogenesis and potential therapeutic strategies. As a leading researcher, he has contributed significantly to the understanding of pancreatic diseases and continues to push boundaries in both basic and clinical research.

Publications Top Notes:

  • Ferroptosis: Past, Present, and Future 📚, Cell Death & Disease, 2020

  • Long Noncoding RNA MALAT1 Promotes Aggressive Pancreatic Cancer Proliferation and Metastasis via Autophagy 📚, Molecular Cancer Therapeutics, 2016

  • A New Algorithm of Blind Color Image Watermarking Based on LU Decomposition 📚, Multidimensional Systems and Signal Processing, 2018

  • Early Prediction of Infected Pancreatic Necrosis Secondary to Necrotizing Pancreatitis 📚, Medicine, 2017

  • A Three-Dimensional Failure Criterion for Hard Rocks Under True Triaxial Compression 📚, Rock Mechanics and Rock Engineering, 2020

  • Plasma and Tumor Levels of Linc-pint as Diagnostic and Prognostic Biomarkers for Pancreatic Cancer 📚, Oncotarget, 2016

  • The Effect of Emodin-Assisted Early Enteral Nutrition on Severe Acute Pancreatitis 📚, Mediators of Inflammation, 2007

  • Hydrogen Sulphide Exacerbates Acute Pancreatitis by Over-Activating Autophagy via AMPK/mTOR Pathway 📚, Journal of Cellular and Molecular Medicine, 2016

  • Necroptosis: A Potential, Promising Target in Acute Pancreatitis 📚, Apoptosis, 2016

  • Effects of Carbon Monoxide Releasing Molecule-Liberated CO on Severe Acute Pancreatitis in Rats 📚, Cytokine, 2010

  • A Novel Blind Color Image Watermarking Based on Contourlet Transform and Hessenberg Decomposition 📚, Multimedia Tools and Applications, 2018

Conclusion:

Professor Wang Gang is an exemplary candidate for the Best Researcher Award due to his impressive academic achievements, groundbreaking contributions to pancreatic disease research, and his ongoing efforts to bridge basic science and clinical practice. His work has not only advanced our understanding of acute pancreatitis but has also paved the way for potential therapeutic advancements. His leadership in research, publications, and collaboration highlights his remarkable contributions to the medical and scientific community.

Xueru Li | Molecular Mechanisms Signaling | Cell Microenvironment Award

Ms. Xueru Li | Molecular Mechanisms Signaling | Cell Microenvironment Award

Ms. Xueru Li , Chongqing Medical University , China

Li Xueru is an accomplished researcher and scientist with expertise in clinical laboratory diagnostics. He obtained his Ph.D. in Clinical Laboratory Diagnostics from Chongqing Medical University. Xueru has contributed extensively to scientific research, particularly in the field of cell microenvironment, fibrosis, and oxidative stress. His research has involved collaborations with prestigious organizations, such as the Chongqing Education Commission and Chongqing Natural Science Foundation. Through his academic journey, he has demonstrated a strong commitment to advancing knowledge in biomedical sciences, particularly in the areas of lung fibrosis and cellular response to environmental stress. Li Xueru is an active participant in research projects and has co-authored several influential publications that have contributed to the advancement of molecular biology and clinical diagnostics.

Publication Profile:

Scopus

Strengths for the Award:

Li Xueru’s expertise in clinical laboratory diagnostics, combined with his research in the field of cell microenvironment and fibrosis, positions him as a strong candidate for the Research for Cell Microenvironment Award. His work, especially the study on “Pharmaceutical targeting of succinate dehydrogenase in fibroblasts to control bleomycin-induced lung fibrosis,” highlights his contributions to understanding cellular mechanisms in fibrosis and oxidative stress. His involvement in high-impact research funded by organizations like the Chongqing Education Commission and the Chongqing Natural Science Foundation shows a commitment to advancing scientific knowledge and contributing to both academic and practical advancements in biomedical sciences. Moreover, his ability to bridge fundamental research with clinical applications demonstrates a strength that aligns with the goals of the Research for Cell Microenvironment Award.

Areas for Improvements:

While Li Xueru’s research focus is promising, there is potential to expand his exploration of cellular microenvironment to include other disease models and extend beyond lung fibrosis. Diversifying his research topics could provide a broader understanding of cellular behavior across different tissues and disease states. Additionally, there could be more emphasis on the development of therapeutic interventions, potentially accelerating the translation of his discoveries into clinical practices. Increasing collaboration with international research teams may also offer new perspectives and further enhance the impact of his work.

Education:

Li Xueru earned his Ph.D. degree in Clinical Laboratory Diagnostics from Chongqing Medical University, one of China’s leading medical institutions. His academic background has provided him with in-depth knowledge of diagnostic technologies, clinical pathology, and molecular biology. During his doctoral studies, he developed expertise in understanding cellular behavior and disease mechanisms at the molecular level, with a particular focus on how environmental stress impacts cellular functions. This education laid the foundation for his career in the biomedical field. He has further strengthened his research skills by participating in various projects funded by the Chongqing Education Commission and the Chongqing Natural Science Foundation. His education has been instrumental in shaping his approach to scientific inquiry, fostering a comprehensive understanding of clinical diagnostics, and equipping him to lead innovative research in the cellular microenvironment and disease mechanisms.

Experience:

Li Xueru’s experience spans a wide range of research activities focused on clinical laboratory diagnostics and cell microenvironment. His involvement in multiple high-impact research projects, supported by institutions like the Chongqing Education Commission and the Chongqing Natural Science Foundation, showcases his leadership in advancing scientific knowledge. Xueru has worked closely with interdisciplinary teams to address complex problems in the biomedical field, particularly lung fibrosis and oxidative stress. His research contributions include identifying novel cellular mechanisms involved in disease pathogenesis, improving diagnostic methodologies, and exploring therapeutic strategies for disease management. He has demonstrated a remarkable ability to apply scientific research in real-world contexts, ensuring that his findings have practical applications in medical diagnostics and treatment. His collaborative approach and innovative thinking have positioned him as a key figure in his field, contributing significantly to both academic literature and clinical advancements.

Research Focus:

Li Xueru’s primary research focus revolves around the molecular mechanisms of diseases, particularly lung fibrosis and cellular responses to environmental stressors. He is dedicated to understanding the impact of oxidative stress on cellular functions and its role in disease progression. His research explores the microenvironment of cells in response to various stimuli, including chemical agents like bleomycin. A significant area of his research is the role of succinate dehydrogenase in fibroblasts and its potential as a pharmaceutical target to control lung fibrosis. Through his work, Xueru has contributed to a better understanding of how cells interact with their microenvironment, which is crucial for developing new diagnostic and therapeutic approaches. His innovative studies on cell signaling pathways, fibrosis, and oxidative stress have the potential to transform treatment strategies for diseases related to chronic inflammation and tissue fibrosis.

Publications Top Notes:

  • Pharmaceutical targeting of succinate dehydrogenase in fibroblasts controls bleomycin-induced lung fibrosis 🧬

  • Corrigendum to “Pharmaceutical targeting of succinate dehydrogenase in fibroblasts controls bleomycin-induced lung fibrosis” 🔬

Conclusion:

Li Xueru is a promising candidate for the Research for Cell Microenvironment Award. His significant contributions to the understanding of cellular mechanisms in fibrosis and oxidative stress have led to valuable insights into the pathophysiology of diseases. By focusing on the cell microenvironment and its role in disease progression, his work is advancing scientific knowledge with important implications for diagnostics and therapy. With further diversification of his research and expanded collaborations, Li Xueru has the potential to make even greater strides in the field, ultimately improving patient outcomes and advancing the application of his findings in clinical settings.

Alma Burlingame | Molecular Mechanisms Signaling | Best Researcher Award

Prof. Alma Burlingame | Molecular Mechanisms Signaling | Best Researcher Award

Prof. Alma Burlingame , UCSF , United States

Alma L. Burlingame is a distinguished Professor of Chemistry and Pharmaceutical Chemistry at the University of California, San Francisco. She has over five decades of experience in the fields of mass spectrometry, proteomics, and systems biology. With expertise in the identification and study of unknown proteins and post-translational modifications like phosphorylation, acetylation, and glycosylation, her work has contributed significantly to understanding protein dynamics. Dr. Burlingame has been a pioneer in proximity-biotin labeling for protein complex discovery and has earned widespread recognition for her interdisciplinary contributions to molecular biology and chemistry. Her long-standing collaboration with various international research institutions has fostered advancements in protein interaction and cellular signaling pathways, marking her as a leader in her field.

Publication Profile:

Scopus

Strengths for the Award:

  1. Innovative Contributions: Dr. Burlingame has made significant contributions to mass spectrometry, proteomics, and systems biology, especially in the development of new methodologies for protein analysis and post-translational modifications. Her work in identifying and studying unknown proteins and their modifications has broadened the scope of proteomics.

  2. Multidisciplinary Expertise: Her expertise spans across various fields including chemistry, physics, biological sciences, and medicine, demonstrating her versatility and depth of knowledge in complex scientific issues.

  3. Impact on the Scientific Community: Through her extensive publication record and influential research, Dr. Burlingame has advanced our understanding of protein dynamics, cell signaling, and the role of glycosylation and phosphorylation in health and disease.

  4. Leadership and Mentorship: Dr. Burlingame’s leadership roles, particularly as a co-chair of major international symposia, reflect her stature in the scientific community. Additionally, her mentorship of students and postdocs has helped shape the next generation of scientists in proteomics and systems biology.

Areas for Improvement:

  1. Broader Collaboration with Clinical Applications: While Dr. Burlingame’s research is foundational in proteomics, further expansion of collaborative work with clinical researchers could enhance the practical application of her discoveries, particularly in disease diagnosis and therapeutics.

  2. Public Outreach: Given the complexity of her research, efforts to communicate her findings to broader audiences could help bridge the gap between academic research and public understanding of the significance of proteomics in health.

Education:

Dr. Burlingame earned her Bachelor of Science degree from the University of Rhode Island in 1959. She went on to complete her PhD in Chemistry and Physics at the Massachusetts Institute of Technology (MIT) in 1962. She further honed her scientific expertise as a Guggenheim Fellow at the Karolinska Institute in Stockholm, Sweden, in 1972, specializing in Physiological Chemistry. Over the years, Dr. Burlingame has continued to advance her education, conducting cutting-edge research in the realms of mass spectrometry, proteomics, and the study of post-translational modifications. Her rigorous academic background, combined with her groundbreaking work, has made her a respected figure in biochemistry and molecular biology.

Experience:

Dr. Burlingame has held several prominent positions throughout her distinguished career. She currently serves as a Professor of Chemistry and Pharmaceutical Chemistry at the University of California, San Francisco. She has also held significant roles such as a University Fellow at Hong Kong Baptist University and Professor of Biochemistry at University College London. Dr. Burlingame has been recognized by the American Association for the Advancement of Science and has been an elected Fellow since 1990. Her professional journey includes visiting professorships at leading institutions such as the Ludwig Institute for Cancer Research. Additionally, she has co-chaired major international symposia on mass spectrometry, enhancing her reputation in the global scientific community. Her leadership and influence in research have made her a pivotal figure in mass spectrometry and proteomics.

Awards and Honors:

Dr. Burlingame has earned numerous prestigious honors throughout her career. In 2018, she was awarded the Albert Nelson Marquis Lifetime Achievement Award for her long-standing contributions to scientific research. She was named a Fellow of the American Society of Biochemistry and Molecular Biology in 2022. Her significant achievements were further recognized when she received the MCP Lectureship Plenary Award at the Society for Glycobiology in 2013. Additionally, she was honored with the Achievement Award from the International Forum of Proteomics in 2012 for her impactful work in proteomics. Her longstanding contributions to the field of mass spectrometry have made her an internationally respected leader, and she continues to inspire future generations of scientists.

Research Focus:

Dr. Burlingame’s research focuses on mass spectrometry, proteomics, and systems biology, with a specific emphasis on protein sequencing, identification, and the dynamics of post-translational modifications (PTMs). She has made significant contributions to understanding the site-specific dynamics of PTMs like phosphorylation, acetylation, and glycosylation, and their roles in cell signaling and differentiation. Her group is particularly known for its work in proximity-biotin labeling, a technique used for protein complex discovery and interactomics. She has also studied the dynamic nature of proteins involved in cellular processes such as protein synthesis, cell signaling, and differentiation. By studying how PTMs influence cellular functions, Dr. Burlingame’s work helps to uncover mechanisms underlying diseases like cancer and neurological disorders. Her innovative approaches in mass spectrometry and proteomics continue to influence the understanding of complex biological systems.

Publications Top Notes:

  1. Revealing nascent proteomics in signaling pathways and cell differentiation 🧬🔬

  2. Locally translated mTOR controls axonal local translation in nerve injury 🧠💥

  3. Mapping axon initial segment structure and function by multiplexed proximity biotinylation 🧬⚡

  4. Capture, release, and identification of newly synthesized proteins for improved profiling of functional translatomes 🔍🔬

  5. Endothelial-secreted Endocan activates PDGFRA and regulates vascularity and spatial phenotype in glioblastoma 💉🧠

  6. Functional screen identifies RBM42 as a mediator of oncogenic mRNA translation specificity 🧬🔍

  7. Phosphorylation-driven epichaperome assembly is a regulator of cellular adaptability and proliferation 🔑🧬

  8. TRIM46 Is Required for Microtubule Fasciculation In Vivo But Not Axon Specification or Axon Initial Segment Formation 🧠⚙️

  9. RAPIDASH: Tag-free enrichment of ribosome-associated proteins reveals composition dynamics in embryonic tissue, cancer cells, and macrophages 🧬📊

  10. Remodelling of the translatome controls diet and its impact on tumorigenesis 🥗🎯

Conclusion:

Dr. Alma Burlingame is undoubtedly a leading figure in the fields of mass spectrometry and proteomics. Her innovative research, mentorship, and contributions to the understanding of protein modifications and their implications for health make her a highly deserving candidate for the Best Researcher Award. Her work has had a profound and lasting impact on molecular biology, and she continues to be a driving force in scientific discovery.

 

 

 

Sabyasachy Mistry | Molecular Mechanisms Signaling | Best Researcher Award

Dr. Sabyasachy Mistry | Molecular Mechanisms Signaling | Best Researcher Award

Dr. Sabyasachy Mistry , US FDA , United States

Sabyasachy (Babu) Mistry is a highly skilled bioanalyst with over sixteen years of experience in analytical chemistry, organic synthesis, and bioanalytical method development. He is currently working at the US Food and Drug Administration (FDA) in Silver Spring, MD. Mistry has a broad expertise that spans liquid chromatography-mass spectrometry (LC-MS/MS), enzyme-linked immunosorbent assay (ELISA), nuclear magnetic resonance (NMR), and various organic chemistry techniques. With strong communication and problem-solving skills, Mistry excels both as a team member and independent researcher. He has contributed to multiple scientific publications, focusing on pharmacokinetics, drug discovery, and regulatory practices, in addition to mentoring students and offering leadership roles in academic settings.

Publication Profile: 

Scopus

Strengths for the Award:

Sabyasachy (Babu) Mistry’s distinguished experience in analytical and bioanalytical chemistry makes him a strong contender for the Research for Best Researcher Award. With over sixteen years of experience, his expertise spans liquid chromatography-mass spectrometry (LC-MS/MS), enzyme-linked immunosorbent assays (ELISA), and computational chemistry, among others. His work in drug solubility and pharmacokinetics, particularly his contributions to hERG assays, is highly relevant to regulatory sciences. Mistry’s capacity to bridge scientific inquiry with FDA regulations ensures his research not only advances scientific understanding but also directly supports regulatory science. His well-documented research, combined with leadership roles and multiple awards, reinforces his research excellence.

Areas for Improvements:


While Mistry’s expertise is extensive, further expansion into collaborative, cross-disciplinary projects could further enrich his body of work. Engaging more in international research initiatives could lead to innovative research outcomes and foster broader scientific networks.

Education:

Sabyasachy Mistry holds a Ph.D. in Analytical Chemistry from Purdue University, where he conducted research under the guidance of Professor Paul G. Wenthold. His dissertation focused on mass spectrometric detection of indophenols for phenol analysis. Prior to this, Mistry completed his M.S. in Organic Chemistry from the University of Dhaka in Bangladesh, where he worked with Professor Nilufar Nahar. His solid educational foundation, combined with his hands-on research experience, has provided him with expertise in a wide range of scientific disciplines, including analytical chemistry, organic synthesis, and bioanalytical methods. Furthermore, Mistry completed the CERSI Immersion Course in Drug Discovery, Drug Development, and Regulation at the UCSF-Stanford Center of Excellence in Regulatory Science and Innovation, strengthening his knowledge in FDA regulations and drug development processes.

Experience:

Mistry’s extensive professional experience spans over a decade in both academic and regulatory environments. Since 2020, he has been serving as a Bio-analyst at the US Food and Drug Administration (FDA), where he applies his expertise in analytical chemistry to support drug discovery and regulatory science. At Purdue University, Mistry worked as a Teaching Assistant (TA) and Head TA in the Department of Chemistry from 2014 to 2020, fostering the growth of new scientists while also contributing to research. His responsibilities included conducting experiments, guiding graduate students, and presenting research findings. Mistry’s work involves advanced techniques such as LC-MS/MS, HPLC, NMR, and computational chemistry tools like Gaussian and Q-Chem. His cross-disciplinary research has contributed to the scientific understanding of pharmacokinetics, drug solubility, and enzyme activity, aligning with regulatory practices in drug approval processes.

Awards and Honors:

Sabyasachy Mistry has been recognized for his outstanding contributions to analytical and bioanalytical chemistry. He was awarded the Graduate Student Travel Award at the 67th ASMS Conference on Mass Spectrometry and Allied Topics in June 2019 in Atlanta, GA. Additionally, Mistry received multiple Travel Scholarships for his student work at the ASMS conferences from 2016 to 2018, showcasing his dedication to advancing scientific knowledge. His role as a volunteer and mentor further exemplifies his leadership within the academic community. These awards highlight his exceptional skills in mass spectrometry and analytical techniques, further solidifying his expertise in the field of chemical research. Mistry’s ability to present complex scientific data and his contributions to regulatory science have garnered recognition from peers and industry professionals alike.

Research Focus:

Sabyasachy Mistry’s research focuses on bioanalytical chemistry, pharmacokinetics, and regulatory science, particularly in drug discovery and development. His work involves the application of advanced techniques such as LC-MS/MS, ELISA, HPLC, and mass spectrometry to investigate drug interactions, solubility, and bioavailability. Mistry’s research also extends to the computational aspects of chemistry, using density functional theory (DFT) calculations to predict reaction profiles and optimize molecular interactions. A key area of interest for Mistry is studying the effects of drug formulations on biological systems, particularly through hERG assays to assess drug safety and efficacy. His work aligns with FDA regulations and contributes to improving drug regulatory processes. Additionally, Mistry has a strong background in organic chemistry, working on the synthesis and modification of small organic molecules. This combination of experimental and computational chemistry makes his research multifaceted, bridging the gap between scientific discovery and regulatory implementation.

Publications Top Notes:

  1. Determination of Lopinavir and Ritonavir in hERG solution to Support In Vitro hERG Block Potency Assessment Using LC-MS/MS: The Challenge of Poor Drug Solubility 📑
  2. Evaluation of a Sequential Antibiotic Treatment Regimen of Ampicillin, Ciprofloxacin, and Fosfomycin against Escherichia coli CFT073 in the Hollow Fiber Infection Model Compared with Simultaneous Combination Treatment 💊
  3. Determination of Five Positive Control Drugs in hERG External Solution (Buffer) by LC-MS/MS to Support In Vitro hERG Assay as Recommended by ICH S7B ⚖️
  4. Probing the Pyrolysis of Guaiacol and Dimethoxybenzenes Using Collision-Induced Dissociation Charge-Remote Fragmentation Mass Spectrometry 🔬
  5. Investigation of the Substituent Effects of the Azide Functional Group Using the Gas-Phase Acidities of 3- and 4-Azidophenols 📚
  6. Mass Spectrometric Detection of the Gibbs Reaction for Phenol Analysis 🔍
  7. Participation of C-H Protons in the Dissociation of a Proton Deficient Dipeptide 💡
  8. The HIVToolbox 2 Web System Integrates Sequence, Structure, Function and Mutation Analysis 🧬
  9. The Geogenomic Mutational Atlas of Pathogens (GoMAP) Web System 🌍
  10. Effect of Sodium Bicarbonate on the Mechanical and Degradation Properties of Short Jute Fiber Reinforced Polypropylene Composite by Extrusion Technique 🔧

Conclusion:

Sabyasachy Mistry has demonstrated exceptional scientific acumen and practical contributions in the field of bioanalytical chemistry. His expertise and leadership in various research domains position him as an excellent candidate for the Research for Best Researcher Award. His continued work on drug discovery and regulatory science will likely result in even greater contributions to both the scientific and regulatory communities.

 

 

 

Felicia ANTOHE | Molecular Mechanisms Signaling | Molecular Cell Biology Award

Dr. Felicia ANTOHE | Molecular Mechanisms Signaling | Molecular Cell Biology Award

Dr. Felicia ANTOHE , Inst. Cellular Biology and Pathology NS , Romania

Dr. Felicia Antohe is the Head of the Proteomics Department at the Institute of Cellular Biology and Pathology, Romanian Academy. With a background in cellular biology and biophysics, she has contributed significantly to biomedical research, particularly in vascular endothelium, atherosclerosis, diabetes, and immune disorders. She has received multiple prestigious awards and conducted pioneering research, especially on the transcytosis of macromolecules in endothelial cells. As a PhD advisor, she mentors young researchers, having guided 12 PhD students to date. Dr. Antohe is an internationally recognized expert with extensive experience in immunology, cell biology, and proteomics.

Publication Profile:

Google Scholar

Strengths for the Award:

Dr. Felicia Antohe stands out as an exceptional candidate for the Research for Molecular Cell Biology Award due to her extensive academic and research achievements. As Head of the Proteomics Department at the Institute of Cellular Biology and Pathology, Romanian Academy, her leadership in pioneering research in endothelial cell biology and vascular pathologies has been transformative. Dr. Antohe’s strong academic background, with a Master’s in Biophysics and a PhD in Cellular Biology, complements her robust research portfolio. With over 170 scientific papers, 90 of which are indexed in Web of Science, she is recognized for her contributions to molecular mechanisms in diseases such as atherosclerosis, diabetes, and immune disorders. Furthermore, her work on monoclonal antibodies and proteomics has had a significant impact on both scientific and clinical advancements.

Areas for Improvement:

While Dr. Antohe’s research is highly regarded, there is potential for greater integration of her research with cutting-edge technologies in bioinformatics and computational biology. This could further expand her work on proteomics and molecular mechanisms. Additionally, there is an opportunity for broader outreach to apply her findings in practical therapeutic contexts through collaborations with pharmaceutical companies or clinical trials. Expanding her influence in translational research could have a larger impact on public health, especially in diseases such as diabetes and cardiovascular disorders.

Education:

Dr. Felicia Antohe holds a Master’s degree in Biophysics from the University of Bucharest (1977). She completed her PhD in Cellular Biology at the Romanian Academy’s Institute of Cellular Biology and Pathology (1994). In addition to her formal education, she has been a PhD coordinator since 2000 and has contributed significantly to research training at national and international levels. Her work blends theoretical knowledge with cutting-edge lab techniques in molecular biology, proteomics, and immunology.

Experience:

Dr. Antohe’s research experience spans numerous roles. She is currently the Principal Investigator and Member of the Scientific Council at the Romanian Academy’s Institute of Cellular Biology and Pathology. She has also worked as a visiting scientist at prestigious institutions like McGill University, University of Alberta, and Max Planck Institute. She has coordinated over 44 research projects, including national and international grants, and is actively involved in multiple collaborative research efforts across Europe and beyond. Her leadership in cell biology and proteomics is widely recognized.

Awards and Honors:

Dr. Antohe has received numerous awards, including the EURESCO Prize (2001), the BIO-RAD Laboratories Prize for valuable research (2002), and the Romanian Academy Emil Racovita Prize (1991). She has also won multiple international recognitions for her scientific contributions, such as the Best Poster award at the “8th International Conference on Vascular Endothelium” (2005), and various fellowships and grants from organizations like COST and the European Science Foundation.

Research Focus:

Dr. Antohe’s research focuses on endothelial cell biology, particularly transcytosis, endocytosis, and cell receptor mechanisms in both health and disease. She investigates the bio-pathology of atherosclerosis, diabetes, and immune disorders, with particular attention to the transport of macromolecules across vascular cells. Her work also explores the role of monoclonal antibodies as diagnostic and therapeutic tools. She applies proteomic techniques to study endothelial cell function, aiming to understand vascular biology at molecular and cellular levels.

Publications Top Notes:

  • The MHC class I-related receptor, FcRn, plays an essential role in the maternofetal transfer of γ-globulin in humans 📄
  • Functional expression of the MHC class I-related receptor, FcRn, in endothelial cells of mice 📄
  • Transcytosis of plasma macromolecules in endothelial cells: a cell biological survey 📄
  • Expression of functionally active FcRn and the differentiated bidirectional transport of IgG in human placental endothelial cells 📄
  • Analytical techniques for multiplex analysis of protein biomarkers 📄
  • Functional ultrastructure of the vascular endothelium: changes in various pathologies 📄
  • Effect of enoxaparin on high glucose-induced activation of endothelial cells 📄
  • Albumin-binding proteins function in the receptor-mediated binding and transcytosis of albumin across cultured endothelial cells 📄
  • Carbapenemase-Producing Klebsiella pneumoniae in Romania: A Six-Month Survey 📄
  • Establishment of a pure vascular endothelial cell line from human placenta 📄

Conclusion:

Dr. Felicia Antohe is an outstanding researcher whose work has greatly advanced our understanding of endothelial cell biology, molecular transport, and disease mechanisms. Her combination of technical expertise, leadership in multiple high-impact research projects, and numerous prestigious awards positions her as an ideal candidate for the Research for Molecular Cell Biology Award. While there is always room to expand her research applications, her contributions to science are already substantial and impactful.

 

 

 

Jiaqiang Huang | Molecular Mechanisms Signaling | Best Researcher Award

Assoc. Prof. Dr. Jiaqiang Huang | Molecular Mechanisms Signaling | Best Researcher Award

Assoc. Prof. Dr. Jiaqiang Huang , China Agricultural University , China

Dr. Huang JQ is an associated professor at China Agricultural University, specializing in animal nutrition, food science, and health. With a strong background in selenium and selenoproteins, Dr. Huang has made significant contributions to understanding their biological effects, particularly in livestock and poultry production. His work explores the prevention and regulation of oxidative stress, intestinal health, and the development of selenium-rich products. Dr. Huang is recognized for his expertise in molecular regulation mechanisms and has published extensively in top-tier journals. He also holds several leadership positions in academic research, contributing to global advances in animal nutrition and health.

Publication Profile:

Scopus

Strengths for the Award:

  1. Extensive Academic Background: Dr. Huang JQ has a comprehensive academic foundation, having completed a Bachelor’s, Master’s, and Doctoral degree in relevant fields, such as Animal Nutrition, Human Health, and Food Science, from prestigious institutions like Yangzhou University, Sichuan Agricultural University, and China Agricultural University. His consistent academic progress over the years reflects his deep commitment and passion for his field.
  2. Expertise in Selenium and Selenoproteins Research: Dr. Huang’s research is centered around the biological effects of selenium and selenoproteins, with a particular focus on their molecular regulation mechanisms and their role in preventing oxidative stress in livestock and poultry. This expertise is highly significant, given the potential of selenium to improve animal health and productivity, contributing to sustainable and efficient agricultural practices.
  3. Pioneering Work in Intestinal Health and Oxidative Stress: His research contributes significantly to understanding how oxidative stress impacts livestock and poultry health and how selenium can serve as a mitigating factor. This aligns with the current need to develop sustainable approaches for livestock health management, including reducing the reliance on antibiotics and improving gut health.
  4. Impressive Publication Record: Dr. Huang has published numerous high-impact papers in reputed journals such as Nutrients, Advanced Science, J Nutr, and Redox Biol, among others. His work has led to several innovative discoveries, particularly in areas like ferroptosis modulation, radiation resistance, and metabolic disorders, showing his versatility in addressing complex issues in animal nutrition and health.
  5. Collaborative Approach and Leadership: As an associate professor at China Agricultural University, Dr. Huang has not only contributed through his individual research but also led and collaborated on numerous interdisciplinary projects. His research is cited extensively, highlighting his leadership and influence within the scientific community.
  6. Global Impact and Relevance: Dr. Huang’s work on selenium-enriched probiotics, selenium-based nanocomposites, and oxidative stress management has the potential for global impact, addressing issues such as malnutrition, oxidative damage, and metabolic diseases. His research is timely and aligns with global health and agricultural goals, making him a highly relevant figure in the research community.

Areas for Improvement:

  1. Broader Outreach of Research Findings: While Dr. Huang’s publications are impressive, there may be a need for more active engagement with non-academic audiences, including policy-makers, industry stakeholders, and the public. Translating his research findings into practical applications in agricultural practices and public health could enhance the societal impact of his work.
  2. Expanding Interdisciplinary Collaborations: While Dr. Huang has a strong background in nutrition and health, future work could benefit from increased collaboration with researchers from other fields such as genetic engineering, microbiology, and environmental sciences. This could help broaden the scope of his research and address complex global issues such as climate change, sustainable agriculture, and bioengineering.
  3. Diversifying Research Focus: Although selenium research is central to Dr. Huang’s work, diversifying into related fields, such as personalized nutrition or the development of innovative biotechnological solutions for sustainable farming, could open up new avenues for his research and expand its applicability in diverse agricultural and medical contexts.

Education

Dr. Huang completed his Bachelor’s in Animal Nutrition from Yangzhou University in 2009. He earned a Master’s in Animal Nutrition and Human Health from Sichuan Agricultural University in 2012. He obtained a Doctorate in Food Science from China Agricultural University in 2015, followed by postdoctoral work at the same institution from 2016 to 2020. As an associated professor since 2020, Dr. Huang has further advanced his research into selenium’s role in livestock and human health.

Experience

Dr. Huang’s research journey began in 2015 with a doctoral focus on food science, followed by postdoctoral research at China Agricultural University. He became an associated professor in 2020, continuing his exploration of selenium’s effects on oxidative stress, intestinal health, and nutrition. His research has led to multiple groundbreaking publications in top journals. With a career dedicated to academic research, Dr. Huang collaborates with international experts, leads innovative projects, and educates future scholars in animal nutrition and food science.

Research Focus

Dr. Huang’s research is focused on the biological effects of selenium and selenoproteins in livestock and poultry, with a particular emphasis on oxidative stress regulation, intestinal health, and selenium-rich products. His work investigates molecular mechanisms behind selenium’s impact on animal health, exploring its potential to improve resistance to diseases and oxidative damage. By developing selenium-enriched products, Dr. Huang aims to enhance livestock and poultry production efficiency while promoting human health. His interdisciplinary approach combines nutrition, molecular biology, and food science to advance the field.

Publications Top Notes:

  1. Advances of Selenium in Poultry Nutrition and Health
  2. Amelioration of LPS-induced Jejunum Injury and Mucus Barrier Damage in Mice by IgY Embedded in W/O/W Emulsion
  3. Roles of Probiotics, Prebiotics, and Postbiotics in B-cell Mediated Immune Regulation
  4. Protective Effect of IgY Embedded in W/O/W Emulsion on LPS Enteritis-Induced Colonic Injury in Mice
  5. Effect of Selenium and Selenoproteins on Radiation Resistance
  6. SELENOI Functions as a Key Modulator of Ferroptosis Pathway in Colitis and Colorectal Cancer
  7. Hepatocyte-specific Selenoi Deficiency Predisposes Mice to Hepatic Steatosis and Obesity
  8. Stabilization by Chaperone GroEL in Biogenic Selenium Nanoparticles Produced from Bifidobacterium animalis H15 for the Treatment of DSS-Induced Colitis
  9. Biomimetic MicroRNAs-Selenium-Nanocomposites for Targeted and Combined Hyperlipidemia Therapy
  10. Protective Effects of Selenium Nanoparticles Against Bisphenol A-Induced Toxicity in Porcine Intestinal Epithelial Cells

Conclusion:

Dr. Huang JQ is a highly deserving candidate for the Best Researcher Award due to his expertise in the biological effects of selenium and selenoproteins, his innovative research in animal nutrition, and his leadership in advancing scientific knowledge in oxidative stress management and intestinal health. His extensive publication record, interdisciplinary collaborations, and potential to impact global agricultural and health practices further strengthen his candidacy. While there are areas for improvement in outreach and diversification, his work is impactful and has the potential for long-lasting contributions to both science and society.