Yichun Wang

This paper shows that D-His-GQDs selectively target virus-organized membrane domains, disrupting viral envelopes while sparing host cells, with antiviral activity against multiple enveloped viruses.

This study uses music-inspired acoustic-piezoelectric stimulation to enhance macrophage extracellular vesicle production and control their therapeutic function by tuning polarization states.

This paper develops engineered dendritic cell-derived small extracellular vesicles that combine T-cell priming with checkpoint reprogramming to enhance antitumor immunity.

This study investigates how chiral ligand modulated graphene quantum dots (GQDs) form distinct nanostructures that influence passive and active enantioselective transport across biological membranes.

This study demonstrates that M1 macrophage-derived small extracellular vesicles (sEVs) act as dual-action nanotherapeutics by combining innate immune-regulatory functions with drug delivery, achieving synergistic anticancer effects.

This paper develops a nanochirality-programmed photosensitizer for deep-tumor PDT by enhancing ROS production and reducing matrix adhesion.

This paper introduces a 3D high-content, high-throughput platform for drug screening in tumor spheroids, showing faster and more spatially informative analysis than conventional methods.

This study develops N-Amino Peptide-Graphene Quantum Dot loaded small extracellular vesicles to target tauopathies, showing improved specificity and efficacy in inhibiting tau aggregation and transmission.

This paper introduces a bioinert hydrogel framework for creating uniform 3D cell cultures to enable high-content and high-throughput drug screening.

This study uses chiral quantum dots to investigate origin-dependent exosome uptake and cargo release mechanisms in different recipient cells.

This paper develops a 3D culture platform using piezoelectric nanofibrous scaffolds with acoustic stimulation to significantly enhance small extracellular vesicle production.