Results-driven scientific executive with 16 years of biotechnology and pharmaceutical experience and a track record of innovation in translational research and pre-clinical drug development. Seeking to leverage extensive expertise in drug development across diverse disease areas (pulmonary, ocular, oncology, auto-immune and infectious diseases) and therapeutic modalities (small-molecules, biologics, nucleic acids, and medical devices). Raised over $30 million in non-dilutive funding, from NIH small business grants and other sources with a 90% success rate, enabling three successful FDA IND-applications (Parion Sciences) and a portfolio of novel cell-based product offerings (Altis Biosystems). Member of joint-steering committees that additionally raised >$100 million in corporate partnerships through out-licensing drug programs and venture capital backing (Vertex, Shire, Gilead, Santen, and others). Goal-oriented leader committed to fostering collaborative research environments and establishing interdisciplinary teams across industry, academia, and government to achieve breakthroughs for improved healthcare outcomes and policy. Passionate about education and career growth for young scientists, including providing opportunities for direct reports; mentoring undergraduate, graduate, and post-doctoral fellows; and supported training programs that bridge transitions from academic to industry careers.
Created a culture of innovation by driving the development of novel human stem cell-based platforms to improve and accelerate preclinical drug development. Applied state-of-the-art advances in biomedical engineering, cell biology, and new technologies (RNAseq, CRISPR, etc.) to build a portfolio of experimental paradigms to assess drug pharmacology, toxicology, and ADME. Authored and managed six funded NIH small business grants, raising $7.7 million total, fully funding Altis R&D and representing >66% of the company’s total revenue in 2023. Actively collaborated with key opinion leaders in academia, pharmaceutical companies and regulatory authorities to understand industry needs and guide policy creation related to the use of microphysiologic systems in drug development. Built an internal culture of creativity and idea sharing through mentorship, lab meetings, and data/journal clubs.
Developed multiplexed cell-based qRT-PCR high-throughput drug screening assay to detect hTERT mRNA and reference gene expression in normal human somatic cells down to 0.005 mRNA copies/cell, utilizing magnetic oligo(dT) beads in 96-well format RNA isolations, and CellTiter-Glo Luminescent Cell Viability assays of lysate aliquots in tandem. This robust assay served as driving force for redesigning drug discovery operations to screen 10,000+ compounds per week with established quality control practices.
Executed 3 research projects over 3 years in molecular biology, protein chemistry, and assay development to discover transcription factor(s) responsible for repressing hTERT gene expression in normal human somatic cells.
Recognized by leadership as best employee in molecular biology with unparalleled efficiency, completing complex plasmid construction projects while generating 3,000+ plasmids to characterize the hTERT minimal promoter months ahead of schedule.