Agata A. Exner

This study shows that membrane filtration removes more lipid from nanobubbles than size exclusion predicts, reducing their acoustic stability under ultrasound.

This paper develops a nonviral, ultrasound-triggered gene delivery platform using cationic nanobubbles that achieve efficient, site-specific gene expression in vitro and in vivo.

This study evaluates PSMA-targeted nanobubbles in a rabbit model to improve prostate cancer detection via ultrasound, showing enhanced tumor targeting and retention compared to conventional microbubbles.

This paper identifies critical process parameters for producing stable, uniform coated nanobubbles via mechanical agitation.

This study combines functional ultrasound with optical imaging to show CBV correlates with hemoglobin and calcium activity in awake mice, and applies it to study neurovascular dysfunction in glioblastoma.

This study examines how immediate vs delayed ultrasound with nanobubbles affects pancreatic cancer cell viability, proliferation, metabolism, and stress responses in PANC-1 and BxPC-3 cells.

This paper demonstrates that ultrasound-activated nanobubbles enhance antitumor immunity by restoring extracellular matrix elasticity and re-engaging immune cells in breast cancer models.

This study shows that ultrasound-activated nanobubbles reduce tumor stiffness and enhance lipid nanoparticle delivery and immunotherapy efficacy.

This paper demonstrates a method to track CAR-T cells in vivo using nanobubble-based contrast-enhanced ultrasound, showing effective visualization in both tumor-bearing and non-tumor-bearing mice.

This paper develops three ICG-based nanoprobe platforms to improve NIR-PAI contrast agents by enhancing signal stability and reducing background noise.

This paper uses contrast-enhanced ultrasound imaging with nanobubbles to assess tumor microenvironment characteristics and predict nanoparticle distribution in tumors with different vascular permeability.

The paper analyzes nanobubble ultrasound contrast agent kinetics and angiogenic signaling in head and neck cancer using pixel clustering and proteomics.