Illuminating Nanomaterial–Cell Interactions by Confocal Microscopy

See how confocal microscopy reveals real-time nanomaterial uptake and intracellular trafficking in 3D, allowing you to study nano–bio interactions that shape diagnostics, targeted drug delivery, and safety outcomes.

In this webinar, you will learn how:

• To design confocal imaging experiments that show where nanomaterials localize and how they move within cells

• Nanomaterial properties influence cellular processing and how to interpret these effects in imaging studies

• Different cell models and phenotypes affect nanomaterial internalization

• A bioprinted epithelial gradient model reveals how cell density and tissue-like organization influence nanomaterial uptake

Engineered nanomaterials possess unique properties that are revolutionizing medicine through advanced diagnostics, targeted drug delivery, and tissue engineering. Their success depends on a detailed understanding of how they interact with single cells, which is relevant for efficacy and safety studies.

Confocal fluorescence microscopy offers powerful insight into these interactions by visualizing fluorescently labeled nanomaterials within complex cellular environments.

This webinar will highlight how confocal microscopy enables high-resolution 3D imaging and real-time analysis of nanomaterials uptake by cells and intracellular trafficking, particularly along the endolysosomal pathway. We will discuss how the physico-chemical properties of nanomaterials determine their cellular interactions, and how different cell models, such as epithelial barriers and immune cells, as well as altered phenotypes (e.g., inflamed or aging cells), influence nanomaterial uptake.

Special attention will be given to the long-term intracellular fate of nanomaterials and clearance mechanisms, critical parameters for medical applications.

The presentation will conclude with a recent study investigating how human lung epithelial cell density modulates nanomaterial uptake. Using a reproducible bioprinting drop-on-demand gradient approach, we examined relationships between cell density, accessible cell membrane, proliferation, and nanomaterial internalization by confocal microscopy, providing new insights into how tissue structures shape nano–bio interactions.