P. T. Brown

This paper introduces B-SIM, an unsupervised Bayesian framework for structured illumination microscopy that improves resolution and contrast by accurately modeling noise, outperforming existing methods in both simulated and experimental data.

This study investigates the role of cortical microtubules in Toxoplasma gondii motility, showing that their destabilization reduces helical movement without affecting speed or invasion/egress.

This study identifies Pcr2 as a critical protein for movement and invasion in Toxoplasma gondii, showing that its absence impairs egress and tissue destruction.

This paper develops a method to enable multicolor coherent structured illumination microscopy using a digital micromirror device, overcoming the blazed grating effect and demonstrating improved resolution and signal-to-noise.