Yuezhe Li

Yuezhe Li, Ph.D.

Senior Scientist I

Yuezhe earned her Ph.D. in Biomedical Sciences from the University of Connecticut. Her thesis work aimed to understand molecular mechanisms that link diabetes with ciliopathy, a group of rare diseases. Other fields of experience include systems biology, machine learning, and mathematical modeling. More recently, she focused on developing physiologically based pharmacokinetic (PBPK) models to get a better mechanistic understanding of drugs’ pharmacokinetics.

Recent publications by this scientist

QSP Modeling of Loncastuximab Tesirine-lpyl Combined with T Cell-Dependent Bispecific Antibodies Bridges Knowledge and Dose Regimen Strategy

June 13, 2025

Presented at ASCPT Annual Meeting 2025. The virtual population-based lymphoma QSP model enabled systematic exploration of alternate drug combinations, dosing schemes, clinical covariates and resultant effect on anti-tumor activity in silico. The results of the LOTIS-7 study (NCT04970901), a platform study evaluating loncastuximab tesirine in combination with glofitamab, will soon be available to assess the accuracy of the model predictions.

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A Novel Agent-based Computational Model for Liver-targeting, AAV-based Gene Therapies Could Predict Response Durability in Hemophilia B Patients Treated with Etranacogene Dezaparvovec

May 19, 2025

Co-developed with CSL Behring, this research introduces a high-resolution model that simulates hepatocyte turnover,  episomal retention and coagulation factor IX (FIX) expression  in virtual patients treated with Etranacogene Dezaparvovec ( HEMGENIX).  The model captured clinical variability before recent clinical readouts were available, and projects FIX expression durability  over two decades.

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Symbolic PBPK-PDE Modeling using Open-Source Julia Tools.

December 6, 2024

Presented at ACoP 2024. The poster introduces a framework for developing physiologically based pharmacokinetic (PBPK) models that incorporate partial differential equations (PDEs) to account for spatial drug distribution, using open-source Julia tools. This approach simplifies the integration of spatial components into PBPK models, demonstrated through a case study on naphthalene diffusion, and is applicable to various pharmacometric models requiring spatial considerations, such as topical, inhaled, and antitumor therapies.

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