The transport-of-intensity equation (TIE) enables quantitative phase imaging (QPI) under
partially coherent illumination by measuring the through-focus intensities combined with a …

Fourier ptychographic microscopy (FPM) theoretically provides a solution to the trade-off
between spatial resolution and field of view (FOV), and has promising prospects in digital …

Single-molecule orientation-localization microscopy (SMOLM) builds upon super-resolved
localization microscopy by imaging orientations and rotational dynamics of individual …

We present deep-ultraviolet Fourier ptychography (DUV-FP) for high-resolution chemical
imaging of biological specimens in their native state without exogenous stains. This …

Iterative phase retrieval is based on minimising a loss function as a measure of the
consistency of an initial guess and underlying experimental data. Under ideal experimental …

Deep learning has transformed computational imaging, but traditional pixel-based
representations limit their ability to capture continuous multiscale object features …

Quantitative phase imaging of living biological specimens is challenging due to their
continuous movement and complex behavior. Here, we introduce space-time Fourier …

Single-shot volumetric fluorescence (SVF) imaging offers a significant advantage over
traditional imaging methods that require scanning across multiple axial planes, as it can …

Whole slide imaging provides a wide field-of-view (FOV) across cross-sections of biopsy or
surgery samples, significantly facilitating pathological analysis and clinical diagnosis. Such …

Deep learning-assisted digital pathology has demonstrated the potential to profoundly
impact clinical practice, even surpassing human pathologists in performance. However, as …