SMART_NV is a cutting-edge artificial antigen-presenting nanovesicle, designed with a focus on chemophysical properties and biomanufacturing. By optimizing its structure, materials, and cellular interactions, we aim to enhance its functionality and stability. SMART_NV mimics natural immune processes, making it a promising tool for controlled immune modulation and improved disease management.
Our research focuses on the critical role of cell-cell communication in maintaining homeostasis and its disruption in diseases like cancer. By studying how cells signal and interact, we aim to uncover mechanisms driving cell dynamics and plasticity, identifying potential biomarkers and therapeutic targets.
In our lab, we engineer live cells to enhance their functions and interactions for a range of applications. By modifying cellular components and pathways, we create precise models for studying physiological mechanisms and developing novel therapeutic strategies. This approach allows us to explore the potential of engineered cells in areas like immunotherapy and tissue regeneration.
Nanoparticle Drug Carrier Development
In our lab, we are developing nanoparticle-based drug carriers with a strong focus on understanding the fundamental principles of nanoparticle design, such as their compositions, surface properties, and interactions with biological systems. By exploring these foundational aspects, we aim to optimize nanoparticle stability, biocompatibility, and targeted delivery for treating diseases like cancer.