Rooted in a rich multicultural heritage spanning Canada, Hungary, and the United States, my career has been shaped by an unrelenting curiosity about the human body's capacity to heal. Based in Bellingham, WA, I operate at the global forefront of medical innovation — where cutting-edge science meets compassionate patient care.
My work centers on some of the most transformative therapies in modern medicine: Chimeric Antigen Receptor T-cell (CAR-T) treatments, cord blood applications, and the pioneering use of mesenchymal stem cells derived from Wharton's Jelly. Each of these modalities represents a paradigm shift in how we understand disease, immunity, and regeneration.
Underpinning everything is a deep foundation in biochemistry — the molecular language that connects scientific theory to clinical reality. This foundation enables me to ask the right questions, design rigorous experiments, and translate discovery into therapeutic impact.
Canadian · Hungarian · American
Global reach, Pacific Northwest roots
Molecular science driving clinical innovation
My work centers on pioneering therapeutic approaches that harness the body's intrinsic healing capabilities. These advanced modalities represent a profound shift in how we combat disease and restore health, moving beyond conventional treatments.
Engineering a patient's own immune cells to precisely target and destroy cancer, offering new hope for hematologic malignancies.
Utilizing precious newborn stem cells for treating blood disorders, immune deficiencies, and unlocking regenerative potential.
Leveraging multipotent stem cells from umbilical cord tissue for their potent regenerative and immunomodulatory properties.
From engineered immune cells to stem cell-derived biologics, my research portfolio spans the most promising frontiers in cell and gene therapy.
Engineering patient-derived T-cells with chimeric antigen receptors to precisely target and eliminate malignant cells — a living drug unlike anything before it.
Harnessing the rich hematopoietic potential of umbilical cord blood to treat hematological disorders, immune deficiencies, and emerging regenerative indications.
Leveraging mesenchymal stem cells from umbilical cord Wharton's Jelly — a non-invasive, ethically uncontested source with exceptional immunomodulatory and regenerative properties.

Holding a Master's in Biopharmaceutical Regulatory Affairs, I possess a rare dual fluency — deeply conversant in both the scientific language of cell biology and the regulatory architecture that governs therapeutic development. This expertise is not merely administrative; it is strategically essential.
Navigating the FDA's Center for Biologics Evaluation and Research (CBER), EMA pathways, and international equivalents requires precision and foresight. I work to ensure that innovative therapies are not only scientifically sound but also positioned for successful regulatory review and approval — accelerating the path from bench to bedside.
Extensive hands-on experience in current Good Manufacturing Practice (cGMP) cell therapy manufacturing ensures that every therapy developed meets the most rigorous standards of quality, safety, and consistency required for clinical and commercial deployment.
Implementing robust QMS frameworks that govern every aspect of cell therapy production — from raw material qualification to final product release.
Designing and executing IQ/OQ/PQ validation protocols that demonstrate reproducibility and consistency across manufacturing runs.
Authoring Batch Manufacturing Records, SOPs, and deviation reports that satisfy domestic and international regulatory expectations.
Maintaining aseptic conditions and environmental monitoring standards that protect product integrity and patient safety at every step.
Perhaps the most audacious dimension of my current research sits at the convergence of artificial intelligence and regenerative medicine — a frontier where computational power amplifies biological possibility.
I am currently leveraging AI to design artificial plasmids that incorporate the renowned Yamanaka transcription factors — Oct4, Sox2, and Klf4 — to reprogram somatic cells into induced pluripotent stem cells (iPSCs). This process, once a painstaking manual endeavor, is being radically accelerated through machine learning-guided vector design and optimization.
The implications are profound. iPSCs represent a virtually unlimited, patient-specific source of cells that can be differentiated into virtually any tissue type. By eliminating the ethical complexities associated with embryonic stem cells, iPSC technology opens an ethically clear pathway to personalized regenerative therapies.
From these iPSCs, we harvest exosomes — nanoscale extracellular vesicles that carry bioactive cargo including proteins, lipids, and RNA. These exosomes are emerging as powerful mediators of tissue repair, immune modulation, and intercellular communication, holding extraordinary potential in next-generation regenerative applications.
Machine learning optimizes Yamanaka factor delivery vectors
Oct4, Sox2, Klf4 convert adult cells to iPSCs
iPSC-derived exosomes collected for therapeutic use
Exosomes deployed in targeted tissue repair therapies
The Yamanaka transcription factors — originally discovered by Nobel Laureate Shinya Yamanaka — are the molecular master switches that unlock cellular pluripotency. AI-optimized delivery of these factors represents a leap forward in precision and efficiency.
A master regulator of pluripotency, Oct4 maintains stem cell identity and suppresses differentiation-associated genes — the cornerstone of the reprogramming cocktail.
Works in concert with Oct4 to maintain the transcriptional network governing self-renewal, ensuring reprogrammed cells retain genuine pluripotent characteristics.
Enhances reprogramming efficiency by activating pluripotency genes and suppressing somatic cell identity — a critical amplifier in the transcription factor ensemble.

Scientific excellence means little if transformative therapies remain out of reach for the patients who need them most. Beyond the laboratory, I am deeply committed to addressing unmet medical needs through two critical pathways: compassionate use requests and facilitated medical tourism.
Compassionate use programs — also known as expanded access — allow patients with serious or life-threatening conditions to access investigational therapies outside of clinical trials. Navigating these regulatory pathways requires both scientific credibility and regulatory acumen, skills I bring to bear on behalf of patients who have exhausted conventional options.
Through medical tourism facilitation, I connect patients with internationally available regenerative treatments that may not yet be accessible in their home countries, ensuring they receive care that is both scientifically sound and ethically administered.
Through a multifaceted approach spanning laboratory research, regulatory strategy, manufacturing excellence, and patient advocacy, the mission is singular: to advance medical science in ways that generate tangible, positive impact on patient outcomes worldwide.
CAR-T, cord blood, and Wharton's Jelly MSC applications
Canada, Hungary, and the United States — a truly global perspective
Oct4, Sox2, Klf4, and c-Myc in the original reprogramming cocktail
Whether you are a fellow researcher exploring synergies in regenerative medicine, a biotech leader seeking regulatory expertise, a clinician advocating for a patient in need of compassionate access, or an investor looking to fund the next generation of cell therapies — I welcome the conversation.
The challenges ahead in medicine are immense, but so is the opportunity. Together, we can push the boundaries of what's scientifically possible and bring those advances to the patients who need them most. Innovation does not happen in isolation — it thrives in collaboration, across borders, disciplines, and perspectives.
Joint studies in iPSC biology, exosome therapeutics, and CAR-T optimization
IND submissions, EMA pathways, and cGMP compliance strategy
Compassionate use navigation and medical tourism facilitation
Advancing clinical-stage regenerative medicine programs
A Canadian/Hungarian/American researcher based in Bellingham, WA — bridging biochemistry, AI, and transformative cell therapies to redefine what's possible in modern medicine.