Quantitative phase imaging (QPI) recovers the exact wavefront of light from intensity
measurements. Topographical and optical density maps of translucent microscopic bodies …

Wave scattering is a challenging numerical problem, yet it is central to fields as diverse as
seismology, fluid dynamics, acoustics, and photonics. Complex structures scatter waves in …

Simultaneous imaging of fluorescence-labeled and label-free phase objects in the same
sample provides distinct and complementary information. Most multimodal fluorescence …

Heterogeneous materials such as biological tissue scatter light in random, yet deterministic,
ways. Wavefront shaping can reverse the effects of scattering to enable deep-tissue …

Transmission matrices, mapping the propagation of light from one end of the tissue to the
other, form an important mathematical tool in the analysis of tissue scattering and the design …

Light penetration depth in biological tissue is limited by tissue scattering. There is an urgent
need for scattering compensation in vivo focusing and imaging, particularly challenging in …

Optical Diffraction Tomography (ODT) has emerged as a powerful tool for imaging biological
cells in a non-invasive and label-free manner. However, conventional approaches using …

Computational Wavefront Shaping with Epi-mode 3D Refractive Index Microscopy Page 1
Computational Wavefront Shaping with Epi-mode 3D Refractive Index Microscopy Mingxuan …

We developed a new deep-learning algorithm based on explicit neural radiance fields to
quantitatively reconstruct the 3D refractive index of transparent biological samples from …

Light penetration depth in biological tissue is limited by tissue scattering. Correcting
scattering becomes particularly challenging in scenarios with limited photon availability and …