Waldemar Debinski | Cancer Cell Biology | Best Researcher Award

Prof. Dr. Waldemar Debinski | Cancer Cell Biology | Best Researcher Award

Wake Forest School of Medicine | United States

Dr. Waldemar Debinski, M.D., Ph.D., is a distinguished neuroscientist and cancer researcher recognized for his pioneering work in brain tumor biology and targeted molecular therapies. His research focuses on understanding the molecular mechanisms that drive the development and progression of malignant brain tumors, with a particular emphasis on gliomas. Dr. Debinski has significantly contributed to the development of novel targeted therapeutics, including receptor-directed cytotoxins and biologics designed to selectively eliminate tumor cells while sparing healthy tissues. His investigations bridge molecular oncology, translational science, and clinical application, aiming to improve therapeutic outcomes for patients with brain cancers. Throughout his career, he has integrated insights from physiology, molecular biology, and pharmacology to develop translational approaches that move from laboratory discovery to clinical implementation. His extensive research has advanced the understanding of tumor-specific receptors and intracellular signaling pathways, contributing to innovative strategies in cancer immunotherapy and precision medicine. Dr. Debinski’s work exemplifies the integration of basic and clinical research toward the development of next-generation treatments for central nervous system malignancies, positioning him as a leading figure in neuro-oncology and translational cancer research.

Profile: Scopus

Featured Publications:

Wocial, B., Januszewicz, W., Siedlecki, J., Feltynowski, T., & Debinski, W. (1982). Alterations in plasma dopamine-β-hydroxylase and catecholamine concentrations during surgical removal of pheochromocytoma. Endocrinologie, 79, 131–139.

Debinski, W., & Wocial, B. (1982). Various aspects of sodium metabolism in hypertension [in Polish]. Polski Tygodnik Lekarski, 37, 1339–1342.

Ignatowska-Świtalska, H., Debinski, W., & Chojnowski, K. (1983). The role of certain hormonal factors in arterial hypertension [in Polish]. Materia Medica Polona, 15, 74–86.

Wasawska, T., Feltynowski, T., Majewska, Z., Januszewicz, W., Sobolewska-Karwowska, A., Wocial, B., & Debinski, W. (1984). Pheochromocytoma: Description of two cases with an unusual clinical picture [in Polish]. Polski Tygodnik Lekarski, 39, 261–263.

Czarkowski, M., & Debinski, W. (1984). Sodium and primary arterial hypertension [in Polish] (Review). Kardiologia Polska, 27, 967–976.

Wocial, B., Debinski, W., Jablonska-Skwicinska, E., Feltynowski, T., Chodakowska, J., Kozakowska, E., & Januszewicz, W. (1984). Sodium content of erythrocytes in patients with arterial hypertension [in Polish]. Polski Archiwum Medycyny Wewnetrznej, 72, 167–174.

Garcia, R., Debinski, W., Gutkowska, J., Kuchel, O., Thibault, G., Genest, J., & Cantin, M. (1985). Gluco- and mineralocorticoids may regulate the natriuretic effect and the synthesis and release of atrial natriuretic factor by the rat atria in vivo. Biochemical and Biophysical Research Communications, 131, 806–814.

Debinski, W., Kuchel, O., Garcia, R., Buu, N. T., Racz, K., Cantin, M., & Genest, J. (1986). Atrial natriuretic factor inhibits sympathetic activity in one-kidney, one-clip hypertension in the rat. Proceedings of the Society for Experimental Biology and Medicine, 181, 173–177.

Debinski, W., Kuchel, O., Buu, N. T., Garcia, R., Cantin, M., & Genest, J. (1986). Involvement of the adrenal glands in the action of the atrial natriuretic factor. Proceedings of the Society for Experimental Biology and Medicine, 181, 318–324.

Debinski, W., Gutkowska, J., Kuchel, O., Racz, K., Buu, N. T., Cantin, M., & Genest, J. (1986). ANF-like peptide(s) in the peripheral autonomic nervous system. Biochemical and Biophysical Research Communications, 134, 279–284.

Lei Shi | Tumorigenesis | Distinguished Scientist Award

Mr. Lei Shi | Tumorigenesis | Distinguished Scientist Award

Mr. Lei Shi, Lanzhou University, China

Dr. Lei Shi is a distinguished cancer biologist and molecular pathologist, currently serving as a Professor and Group Leader at the School of Public Health, Lanzhou University, China. With an international career spanning Germany, the UK, and China, Dr. Shi has significantly contributed to our understanding of long non-coding RNAs (lncRNAs), KRAS-mediated tumorigenesis, and lung cancer biology. He earned his Ph.D. from Ludwig Maximilian University of Munich, and completed postdoctoral training at the CRUK Manchester Institute, one of the world’s premier cancer research centers. His interdisciplinary research bridges cancer signaling, immunotherapy, and molecular genetics. Dr. Shi has been the recipient of multiple national and international grants and has authored numerous high-impact publications in journals such as Nature Communications, Molecular Cancer, and Cell Death & Differentiation. His research plays a pivotal role in advancing personalized cancer therapy and diagnostics, making him a strong contender for the Distinguished Scientist Award.

Publication Profile: 

Orcid

Scopus

Strengths for the Award:

  1. Extensive Expertise in Tumorigenesis
    Dr. Shi has built a deep and consistent research track record in lung cancer biology, KRAS signaling, and non-coding RNAs—critical areas in modern tumorigenesis research. His work spans oncogene-driven pathways, epigenetics, and RNA biology, which are all highly relevant to the theme of this award.

  2. Strong International Training and Collaborations
    His academic path includes a Ph.D. in Germany (LMU Munich), a postdoctoral fellowship in the UK (University of Manchester/Cancer Research UK), and leadership in China—demonstrating international impact and collaboration.

  3. Proven Research Leadership
    As a Group Leader and Professor at Lanzhou University, Dr. Shi has led grants from both national and provincial Chinese funding bodies, showcasing strong institutional leadership and research independence.

  4. High-Impact Publications
    Dr. Shi has multiple first-author and corresponding-author publications in top-tier journals like Nature Communications, Molecular Cancer, Cell Death & Differentiation, Cancer Research, and others. This indicates a sustained contribution to scientific knowledge with measurable impact.

  5. Focus on Translational Relevance
    His work on KRAS-mediated tumorigenesis, lncRNAs in cancer, microRNA regulation, and drug resistance directly contributes to potential cancer therapies and diagnostics, aligning with the translational emphasis of many distinguished awards.

  6. Mentorship and Emerging Talent Development
    Multiple publications list junior co-authors under his supervision, showing that he actively mentors young scientists and builds collaborative research teams.

Areas for Improvement:

  1. Broader Recognition in Global Awards
    While Dr. Shi has an impressive research footprint, there is limited mention of international awards, editorial roles, or keynote presentations, which are often considered markers of distinguished global leadership.

  2. Clinical Translation or Patents
    The profile would benefit from stronger clinical application indicators, such as patents, clinical trials, or biotechnology translation, to further demonstrate real-world impact.

  3. Broader Research Diversification
    Although his expertise is deep in KRAS and RNA biology, engaging with emerging areas like AI in cancer research, organoid modeling, or immune-oncology interfaces could amplify his multidisciplinary influence.

Education:

Dr. Lei Shi’s academic journey is deeply rooted in life sciences and molecular pathology. He obtained his Bachelor’s degree in Veterinary Medicine (2003–2007) from Heibei North University, China, followed by a Master’s degree (2007–2010) in Agricultural Microbiology at Huazhong Agricultural University, where he developed his early interest in pathogenic mechanisms. He then pursued his Ph.D. (Dr.rer.nat) in Molecular Pathology (2011–2014) at the Ludwig Maximilian University of Munich, Germany, under the mentorship of Prof. Dr. Heiko Hermeking. His doctoral research explored the transcriptional regulation of tumor suppressors and oncogenes. This academic progression built a solid foundation in molecular oncology, leading to a postdoctoral fellowship (2015–2021) at the Cancer Research UK Manchester Institute and Lung Cancer Centre of Excellence, UK. Dr. Shi’s diverse education has provided him with a global and translational perspective on cancer biology, strengthening his leadership in molecular oncology research today.

Professional Experience:

Dr. Lei Shi is a Professor and Group Leader (2021–present) at Lanzhou University, where he heads translational cancer biology research within the School of Public Health. Prior to this, he held a prestigious Postdoctoral Research Fellow role (2015–2021) at the Cancer Research UK Manchester Institute, affiliated with The University of Manchester. There, he conducted cutting-edge research on KRAS-driven lung cancers, drug resistance mechanisms, and RNA therapeutics. Earlier, he was a Ph.D. researcher (2011–2014) at Ludwig Maximilian University of Munich, delving into the regulatory roles of p53 and lncRNAs. His professional experience reflects a continuum of cancer research from fundamental science to translational applications. Dr. Shi’s team at Lanzhou University is now exploring new therapeutic targets for non-small cell lung cancer and virus-associated cancers. He has secured multiple prestigious national and international grants and is actively mentoring the next generation of cancer researchers in China.

Research Focus:

Dr. Lei Shi’s research centers on the molecular mechanisms of cancer development and progression, with a primary focus on long non-coding RNAs (lncRNAs), KRAS oncogene signaling, and RNA-based therapeutic strategies. His lab investigates how lncRNAs modulate gene expression, interact with microRNAs, and influence tumor microenvironment and immune response, particularly in non-small cell lung cancer (NSCLC) and virus-related malignancies. Dr. Shi is also exploring transcriptional feedback loops, including interactions between HIF1A-AS2 and MYC, to unravel how oncogenic pathways fuel metastasis. His postdoctoral work revealed KRAS-induced microRNA regulation, significantly advancing the understanding of RNA biology in cancer. Dr. Shi’s research integrates bioinformatics, functional genomics, and clinical samples to identify novel biomarkers and therapeutic targets. His contributions are paving the way for precision oncology, making a significant impact on early diagnosis, patient stratification, and drug resistance profiling in solid tumors, especially lung cancer.

Publications Top Notes: 

  1. The roles of KRAS in cancer metabolism, tumor microenvironment and clinical therapy – Molecular Cancer (2025)

  2. Long non-coding RNA-encoded micropeptides: functions, mechanisms and implications – Cell Death & Discovery (2024)

  3. p53-regulated lncRNAs in cancers: from proliferation and metastasis to therapy – Cancer Gene Therapy (2023)

  4. Long non-coding RNA HIF1A-As2 and MYC form a double positive feedback loop in NSCLC – Cell Death & Differentiation (2023)

  5. Long non-coding RNAs in virus-related cancers – Reviews in Medical Virology (2022)

  6. Prognostic and immunotherapeutic roles of KRAS in Pan-Cancer – Cells (2022)

  7. A KRAS-responsive long non-coding RNA controls microRNA processing – Nature Communications (2021)

  8. Diverse roles of long non-coding RNA in viral diseases – Reviews in Medical Virology (2020)

  9. Vulnerability of drug-resistant EML4-ALK lung cancer to transcriptional inhibition – EMBO Mol Med (2020)

  10. KRAS induces lung tumorigenesis through microRNAs modulation – Cell Death & Disease (2018)

  11. The immunological and prognostic landscape of TFAP4 in cancer (scRNA-seq study) – Archives of Biochemistry and Biophysics (2025)

Conclusion:

Dr. Lei Shi is highly suitable for the Distinguished Scientist Award in Tumorigenesis Research. His exceptional publication record, international training, leadership in cancer biology, and dedication to translational science make him a standout candidate. With ongoing contributions and future expansion into cross-disciplinary domains, his research trajectory is aligned with the highest standards of scientific distinction.