Zhuo Wang

TL;DR: The spatial light interference microscopy (SLIM) as mentioned in this paper is a new optical microscopy technique, capable of measuring nanoscale structures and dynamics in live cells via interferometry.

TL;DR: Spatial light interference microscopy reveals the intrinsic contrast of cell structures and renders quantitative optical path-length maps across the sample, which may prove instrumental in impacting the light microscopy field at a large scale.

TL;DR: It is demonstrated that a newly developed optical interferometric technique, known as spatial light interference microscopy, can measure the cell dry mass of many individual adherent cells in various conditions, over spatial scales from micrometers to millimeters, temporal scales ranging from seconds to days, and cell types ranging from bacteria to mammalian cells.

TL;DR: Topics focused on in this article include species description, pathogenesis, life cycle, capsule, and stress response, which serve to highlight the specializations in virulence that have occurred in this unique encapsulated melanin-forming yeast that causes global deaths estimated at more than 600,000 annually.

TL;DR: In this article, phase-pure quantum well films with microscale vertically aligned grains were constructed by using a molten salt spacer n-butylamine acetate instead of the traditional halide spacer N-battery iodide, which achieved a power conversion efficiency of 16.25% and a high open voltage of 1.31