Expert-led analysis for neurotoxicology, drug delivery, and environmental health research. We help researchers design better experiments and strengthen grant proposals through rigorous physics-based methodology.
Decades of validated simulation experience applied to emerging nanoplastic challenges.
Every analysis bounded by cellular damage thresholds. Built-in safety validation from the start.
Clear reports with figures, methods sections, and uncertainty quantification for your proposals.
Four decades of Monte Carlo simulation experience. Pioneered microdosimetry models for cancer therapy at Memorial Sloan-Kettering Cancer Center. Published in IJROBP, NATO ASI Series, and Journal of Nuclear Medicine.
Now applying cellular-level energy modeling expertise to the emerging challenge of nanoplastics in biological systems—developing frameworks to understand particle-cell interactions before they become clinical problems.
Nanoplastics have been detected in human brain tissue, blood, and placenta. Researchers need to understand particle-cell interactions, but wet-lab experiments are slow, expensive, and can only test limited conditions.
Combining proven physics methodology with modern computational approaches to deliver faster, more comprehensive research support.
Rapid extraction of parameters and findings across thousands of publications. Comprehensive hypothesis generation grounded in existing research.
Monte Carlo methods combined with intelligent search to explore parameter spaces that would take months to test experimentally.
Structured deliverables with clear methodology, limitations, and uncertainty quantification. Ready for grant appendices and publications.
Expert consulting delivered as clear, actionable reports to support your research.
For grant proposals and publications
8-week collaboration
For pharma preclinical teams
Understand your research goals and experimental context
Literature review, parameter estimation, scenario modeling
Generate figures, hypotheses, and recommendations
Report with clear limitations and suggested next steps
Today, we provide expert consulting. Tomorrow, we're building the platform that makes physics-based nanoparticle simulation accessible to every researcher—reducing the cost of discovery while protecting what matters most: cellular safety.
Publication-quality figures, preliminary computational data, and methods sections that strengthen funding applications.
Identify which parameters matter most before committing to expensive wet-lab studies. Focus resources on high-impact experiments.
Model nanoparticle behavior in BBB chips, neural organoids, and barrier tissue systems before fabrication.
Binding energy and safety threshold analysis to de-risk nanoparticle drug delivery candidates.
Whether you're writing a grant, designing experiments, or de-risking a preclinical program, we can help.
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