Protein nanoparticles offer unique advantages as drug delivery systems, including ease of synthesis, high drug loading capacity, biocompatibility, and biodegradability. We are currently interested in developing albumin-based nanoparticles for cancer drug delivery. These nanoparticles will be loaded with therapeutic drugs and designed to undergo disassembly in response to external stimuli, enhancing their ability to release their therapeutic payload and penetrate dense tumors. Additionally, we will conduct a detailed investigation into the molecular and cellular interactions of these nanoparticles to optimize their performance in biological systems.
Engineered nanoparticles (NPs) have been extensively studied in biomedical research for their ability to encapsulate and deliver poorly soluble drugs to targeted cells and tissues. In this context, understanding the cellular uptake mechanisms of NPs is crucial for advancing drug delivery systems. In our research we investigate NP endocytosis, with the long-term goal of understanding and optimizing the cell uptake of albumin-based NPs designed for cancer treatment.
Upon entering systemic circulation, nanoparticles (NPs) immediately encounter a complex milieu of blood cells, plasma proteins, and other biomolecules. Interactions between NPs and these diverse components can inadvertently trigger toxic responses. Therefore, it is critically important to understand the potential adverse effects of NPs and how can these be minimized or even eliminated through rational nanomaterial design. In our research, we study the blood compatibility of NPs using a range of methods, from isolated human plasma and blood cells to whole blood experiments. This integrated approach enables the development of safer and more biocompatible nanomaterials.