Qi Gao | 3D Co-Culture | Best Researcher Award

Dr. Qi Gao | 3D Co-Culture | Best Researcher Award

Dr. Qi Gao | Stanford University | United States

Dr. Qi Gao is a dedicated biomedical scientist with over a decade of research experience in molecular biology, regenerative medicine, and tissue engineering. With a Ph.D. in Biomedical Engineering from the City University of Hong Kong, Dr. Gao currently conducts translational research at Stanford University. Her work explores the intricate cellular interactions in 3D tissue models, focusing on macrophage and mesenchymal stromal cell dynamics under inflammatory and oxidative stress conditions. Dr. Gao is recognized for her interdisciplinary approach, blending biology, engineering, and advanced analytics to solve clinical challenges in orthopaedics and joint degeneration. She has co-authored numerous high-impact publications and has mentored young scientists in experimental methods and protein misfolding mechanisms. Her work is frequently published in top-tier journals and presented at international conferences. With strong teaching, communication, and analytical skills, Dr. Gao is a prominent contributor to innovations in personalized medicine and regenerative healthcare solutions.

Publication Profile: 

Orcid

Education:

Dr. Qi Gao earned her Ph.D. in Biomedical Engineering from the City University of Hong Kong , where she built a strong foundation in cellular biology, protein misfolding, and regenerative tissue modeling. During her doctoral studies, she actively contributed to teaching undergraduate students in the Biosafety in Equipment and Facilities course, conducting eighteen classes per seminar. She also served as a mentor to seven undergraduate students, advising their theses in protein misfolding and providing hands-on experimental guidance twice weekly. Her academic training reflects a rigorous, research-intensive environment combined with mentorship and teaching responsibilities. This background has given her deep expertise in experimental design, data synthesis, and translational applications of biomedical innovations. Since completing her Ph.D., she has pursued postdoctoral and collaborative research opportunities at Stanford University, further expanding her skills in regenerative medicine, AI-assisted imaging, and macrophage-mediated joint modeling for translational use in orthopaedics.

Experience:

Dr. Qi Gao brings 10+ years of research and academic experience across global institutions. At the City University of Hong Kong, she conducted pioneering research into protein misfolding and stem cell biology. She transitioned to Stanford University, where she has been a driving force behind multiple 3D tissue engineering and inflammation modeling projects. Her work at Stanford includes the development of innervated organoids, macrophage-stem cell interaction models, and AI applications in orthopaedic imaging. Qi has mentored students, collaborated with leading scientists, and managed complex translational research projects. She possesses strong technical skills in cell culture, biomaterials, confocal microscopy, flow cytometry, and molecular analysis. Beyond bench science, she is proficient in scientific writing, grant applications, and interdisciplinary collaboration. Her research addresses real-world clinical problems such as osteoarthritis, bone degeneration, and inflammation, positioning her as a key contributor in advancing regenerative medicine and clinical translation.

Awards and Honors:

Dr. Qi Gao is a two-time recipient of the Translational Research and Applied Medicine (TRAM) Pilot Grant at Stanford University for the cycles, recognizing her innovative approaches to disease modeling and regenerative therapies. These competitive grants fund projects with strong potential for clinical translation and societal impact. Her recognition in academic circles extends beyond funding; she has been selected as a lead author and collaborator in numerous peer-reviewed publications, including journals like Osteoarthritis and Cartilage, Journal of Inflammation Research, and Stem Cell Research & Therapy. She has presented at major scientific conferences and is frequently cited for her work on macrophage modulation, oxidative stress, and joint inflammation models. These accolades demonstrate her commitment to high-impact, interdisciplinary biomedical research and her ability to consistently deliver results that advance both science and clinical care.

Research Focus:

Dr. Qi Gao’s research centers on the cellular and molecular mechanisms underlying joint inflammation, bone regeneration, and tissue remodeling. She specializes in 3D organoid cultures, particularly models that replicate the synovium-cartilage interface and the bone microenvironment. A core theme of her work is understanding how macrophage phenotypes and mesenchymal stromal cells (MSCs) interact to regulate angiogenesis, osteogenesis, and fibrosis, particularly in inflammatory and corticosteroid-impaired settings. She also investigates the use of metformin and other small molecules to mitigate oxidative stress in stem cell therapies. In addition, Dr. Gao is involved in AI-assisted imaging to improve diagnostic accuracy for bone pathologies such as osteonecrosis of the femoral head. Her translational approach bridges basic science with clinical application, enabling her work to influence therapies for osteoarthritis, bone healing, and personalized regenerative medicine. Her future goals include developing biomimetic models that accurately predict treatment responses in orthopaedic diseases.

Publications Top Notes: 

  1. Macrophage phenotypes modulate neoangiogenesis and fibroblast profiles in synovial-like organoid cultures.

  2. An innervated synovium-cartilage chip for modeling knee joint inflammation and associated pain.

  3. Metformin modulates cell oxidative stress to mitigate corticosteroid-induced suppression of osteogenesis in a 3D model.

  4. 3D culture of MSCs for clinical application.

  5. The advantages and shortcomings of stem cell therapy for enhanced bone healing.

  6. Metabolic profile of mesenchymal stromal cells and macrophages in the presence of polyethylene particles in a 3D model.

  7. Macrophages modulate the function of MSC- and iPSC-derived fibroblasts in the presence of polyethylene particles.

  8. The effects of macrophage phenotype on osteogenic differentiation of MSCs in the presence of polyethylene particles.

  9. Optimization of cytometry by time-of-flight staining for peripheral blood and bone marrow samples.

  10. Metformin modulates oxidative stress in murine mesenchymal stem cells and alleviates corticosteroid-induced inflammation.

Conclusion:

Dr. Qi Gao represents an exceptional biomedical researcher whose contributions have directly advanced the fields of tissue engineering, regenerative medicine, and cell therapy. Her body of work demonstrates scientific rigor, innovation, and real-world relevance. With continued leadership in translational research, mentorship of junior scientists, and active collaboration across disciplines, Dr. Gao is not only suitable but highly competitive for the Best Researcher Award. Her scientific career trajectory strongly aligns with the values of the award—excellence, innovation, and societal impact in science.

Mahedi Hasan | Plasma Medicine | Young Researcher Award

Mr. Mahedi Hasan | Plasma Medicine | Young Researcher Award

Mr. Mahedi Hasan, Shizuoka University, Japan

Mahedi Hasan is a promising Bangladeshi researcher with a strong academic and research foundation in genetic engineering and nanostructured optoelectronics. Currently pursuing his PhD at Shizuoka University, Japan, his work bridges plasma science with biomedical applications, focusing on cold atmospheric microplasma for drug delivery and cellular modulation. Previously, Mahedi completed his BS and MS in Genetic Engineering and Biotechnology from the University of Rajshahi with excellent academic distinction. He has published extensively in international peer-reviewed journals, collaborating with multinational research teams in Japan and Bangladesh. His passion lies in innovative, interdisciplinary approaches to solving complex biomedical problems, with a vision to improve targeted therapeutics. Mahedi has demonstrated remarkable dedication, from assisting in molecular biology labs to leading pioneering plasma-based biomedical research. With an emerging global presence and deep scientific curiosity, Mahedi Hasan is an ideal candidate for the Young Researcher Award.

Publication Profile: 

Orcid

✅ Strengths for the Award:

  1. Robust Academic Foundation

    • Strong academic performance in both undergraduate (CGPA 3.63) and postgraduate (CGPA 3.87) studies in Genetic Engineering & Biotechnology.

    • Currently pursuing a PhD in Optoelectronics and Nanostructure Science at a reputable Japanese institution (Shizuoka University), indicating a cross-disciplinary research approach.

  2. High-Impact Research Contributions

    • Authored 10+ peer-reviewed publications, several in Q1 journals, addressing cutting-edge topics such as cold atmospheric plasma (CAP), drug delivery, and cellular senescence.

    • Demonstrated innovation in plasma-assisted biomedical applications, including nose-to-brain delivery systems and BBB penetration strategies.

  3. International Collaboration and Experience

    • Collaborates with an international team across Bangladesh and Japan, engaging in complex projects with global relevance.

    • Ongoing research in Japan exposes him to high-end lab infrastructure and interdisciplinary training.

  4. Recognitions and Scholarships

    • Winner of the National Science and Technology (NST) Fellowship – 2019, a significant national-level endorsement of research potential.

    • Recipient of the Graduate Board Scholarship – 2019 for academic excellence.

  5. Consistent Research Focus

    • Maintains a clear research trajectory from plant plasma applications to nanotechnology and plasma-driven biomedical interventions, showcasing a deepening specialization.

🧩 Areas for Improvement:

  1. Independent Project Leadership

    • Most publications are collaborative; demonstrating leadership in principal investigator (PI)-style roles or initiating independent proposals would further establish his research autonomy.

  2. Wider Conference Participation

    • Engaging more frequently in international conferences and symposiums (oral/poster presentations) would enhance visibility and networking.

  3. Diversification of Funding Sources

    • Beyond national scholarships, pursuing international research fellowships (e.g., JSPS, DAAD, Marie Skłodowska-Curie) would show strategic initiative and grant-writing skills.

  4. Industrial/Clinical Relevance Expansion

    • Potential to link his plasma-based research with real-world medical or commercial applications through translational or industry-collaborative projects.

📘 Education:

Mahedi Hasan’s academic journey showcases consistent excellence. He is currently pursuing a Ph.D. in Optoelectronics and Nanostructure Science at Shizuoka University, Japan (2023–ongoing), where his research focuses on cold plasma-mediated drug delivery systems. He holds both Bachelor’s (2018) and Master’s (2019) degrees in Genetic Engineering and Biotechnology from the University of Rajshahi, Bangladesh. Despite delays in examination schedules, he graduated with distinction, securing a CGPA of 3.87/4.00 in MS and 3.63/4.00 in BSc. His academic records demonstrate a strong foundation in life sciences, biotechnology, and interdisciplinary research. Through his studies, he developed expertise in molecular biology, protein science, and advanced biomedical technologies. His transition into nanostructured optoelectronics further highlights his adaptability and commitment to advancing next-generation therapeutic technologies. Mahedi’s education reflects not only academic brilliance but also his progressive shift toward impactful, translational science.

🧪 Experience:

Mahedi Hasan has garnered substantial research experience across molecular biology and plasma-based therapeutics. He served as a Research Assistant at the

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& Protein Science Lab in the Department of Genetic Engineering & Biotechnology, University of Rajshahi, from May 2019 to September 2023. His role included evaluating the effects of low-pressure dielectric barrier discharge (LPDBD) plasma on the growth, physiology, and nutritional properties of crops like wheat and maize. Prior to that, he completed a Research Internship in the same lab, where he explored the impact of LFGD plasma on agronomic and nutritional traits. His current Ph.D. research continues this trajectory, now exploring cold atmospheric microplasma for improved drug absorption across the blood-brain barrier and in cancer cells. Mahedi’s experience demonstrates a unique blend of plant and human model systems, bench-to-bedside translation, and strong interdisciplinary collaboration in both Bangladeshi and Japanese labs.

🏅 Awards and Honors:

Mahedi Hasan’s research potential has been recognized with several prestigious awards. In 2019, he received the National Science and Technology (NST) Fellowship from the Ministry of Science and Technology, Government of Bangladesh, a competitive award supporting emerging scientific talent. That same year, he was honored with the Graduate Board Scholarship by the University of Rajshahi, granted for his academic excellence during his Master’s studies. These accolades highlight his academic brilliance and commitment to impactful research. His continuous involvement in high-impact international collaborations and publications in reputable journals further solidify his reputation as a dedicated young scientist. As a Ph.D. candidate in Japan, he continues to contribute to frontier biomedical applications of microplasma technology. These honors, coupled with his impressive research output and global collaborations, make him an outstanding contender for any young researcher recognition.

🔬 Research Focus:

Mahedi Hasan’s research uniquely bridges biotechnology, plasma physics, and nanomedicine. His core focus is on the application of cold atmospheric microplasma in enhancing drug delivery, especially across complex barriers like the blood-brain barrier and into cancerous cells. His work explores microplasma-assisted nose-to-brain delivery systems, cellular senescence modulation, and targeted uptake of hydrophilic compounds. His research employs both cellular (in vitro) and animal (in vivo) models to study absorption efficiency, molecular interaction, and bioavailability of therapeutic agents. In his early work, he investigated plasma’s role in altering the physiology and nutritional value of crops. Now, through cutting-edge interdisciplinary collaborations at Shizuoka University, he is working at the frontier of plasma-assisted biomedical innovation, opening new doors for non-invasive drug delivery systems. This fusion of bioscience with physical sciences represents a novel, transformative approach, making his research both timely and globally significant.

📚 Publications Top Notes:

  1. 📄 Microplasma-Mediated Enhancement of FD-150 Uptake in HL-60 Cells

  2. 🧠 Absorption of FD-150 in Brain Endothelial Cells by Cold Atmospheric Microplasma

  3. 🧬 Exploring the Role of Microplasma for Controlling Cellular Senescence in Saccharomyces cerevisiae

  4. Voltage Dependent Effect of Spiral Wound Plasma Discharge on DBC1.2 Cellular Integrity

  5. 🧪 Enhancing Galantamine Distribution in Rat Brain Using Microplasma-Assisted Nose-to-Brain Drug Delivery

  6. 🧫 Absorption of FD-150 into White Blood Cells by Microplasma

  7. 🚧 In Vitro Drug Delivery through the Blood–Brain Barrier Using Cold Atmospheric Plasma

  8. 🧼 Lipidomics of Microplasma-Irradiated Cells at Optimized Discharge Conditions for Absorption of High-Molecule Drug

  9. 🐍 Toxins Profiles and Histological Impact of Trimeresurus erythrurus Venom: In Vitro and In Vivo Study

  10. 🧯 Evaluation of Bungarus caeruleus Venom and Antivenom Efficacy Used in Bangladesh

📝 Conclusion:

Mahedi Hasan emerges as a highly promising young researcher with a multidisciplinary profile rooted in biotechnology, plasma science, and nanostructure-based drug delivery systems. His solid academic background, commendable publication record, and international research involvement make him a strong contender for the Young Researcher Award. While he could benefit from taking on greater research leadership and wider dissemination of his work, his achievements to date clearly indicate excellent potential for impactful scientific contributions in the coming years.