Anna‐Karin Gustavsson

This study shows that ROCK and SLK/LOK oppositely regulate VE-cadherin mobility at endothelial junctions through distinct mechanisms.

This study compares the structural and mechanical properties of actin bundles formed by CaMKII with those formed by canonical cross-linkers, revealing unique flexibility and curvature in CaMKII bundles.

This paper demonstrates a simple 3D single-molecule localization microscopy technique using 3D-printed phase masks and computational compensation.

This study investigates how FLASH and conventional radiation affect mitochondrial function in tumor and nontumorigenic cells, finding FLASH preserves mitochondrial integrity in non-tumor cells.

This paper introduces SoLiD-3D, a high-speed volumetric SMLM platform that improves localization density and axial resolution using dual-wavelength light sheets and engineered PSFs.

This paper introduces a tunable microfabrication method for reflective micromirrors that enhance single-objective light sheet microscopy, achieving improved signal-to-background ratio and resolution.

This study quantifies telomere dynamics in HGPS patient fibroblasts and shows that C75 fully restores chromatin dynamics while Lonafarnib only partially rescues them.

This study identifies KDM4A as a critical factor for cilia assembly and maintenance by interacting with Rootletin and maintaining basal body architecture.

This paper introduces a single-objective lattice light sheet microscopy platform for improved 3D single-molecule super-resolution imaging in scattering samples.

This study identifies KDM4A as a centrosome-associated protein whose demethylase activity maintains centrosome integrity and genomic stability.

This paper develops a method to fluorescently label and track non-repetitive genomic loci in live human cells, showing gene-specific chromatin dynamics independent of transcription.

The paper introduces AutoDS and AutoDS3D, deep learning tools for single-molecule super-resolution microscopy that reduce manual intervention and computation time.

This paper introduces long axial-range double-helix PSFs for 3D super-resolution imaging, enabling stitching-free imaging of whole mammalian cells with improved speed and resolution.

This paper introduces a multimodal illumination platform for 3D single-molecule super-resolution imaging in mammalian cells, improving signal-to-background ratio and localization precision.