DURHAM, NC · DUKE · BME
All projects

Targeted Nanoparticle Drug Delivery.

Shape-dependent cellular uptake mechanisms for iron oxide nanorods in targeted drug delivery applications.

Project

  • — Nanoscience
  • — Drug Delivery
  • — Cellular Biology
Nanoparticle cellular uptake figure showing iron oxide nanorod shape effects and biomedical delivery implications.

Notes

This project investigates the fundamental mechanisms of cellular uptake for iron oxide nanorods, with applications in targeted drug delivery and therapeutic interventions.

Research Focus

Nanoparticle shape plays a crucial role in determining cellular uptake efficiency and mechanisms. This project specifically examines:

  • Shape-dependent uptake pathways for iron oxide nanorods
  • Cellular interaction mechanisms at the nano-bio interface
  • Optimization strategies for enhanced drug delivery efficiency

Key Findings

  • Demonstrated significant shape-dependent variations in cellular uptake rates
  • Identified specific endocytic pathways involved in nanorod internalization
  • Established design principles for optimized therapeutic nanoparticles

Clinical Applications

The research has direct implications for:

  • Cancer therapy: Targeted delivery to tumor cells
  • Imaging applications: Enhanced contrast agents for MRI
  • Personalized medicine: Tailored nanoparticle designs for specific therapeutic needs

This work has been published in Nanoscale and contributes to the rational design of imaging probes, delivery systems, and next-generation nanomedicines.