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20242026
most citedFluorescence Diffraction Tomography using Explicit Neural Fields

1 citations · 1 across the 4 of their papers we have counts for

collaborators

5 papers

physics.optics2026

Intensity-based scattering correction enables in vivo two-photon imaging beyond 1 mm

Yucheng Li, Renzhi He, Yi Xue

Optical imaging of the deep brain with subcellular resolution is essential for neuroscience, but noninvasive imaging beyond the cortex, through scattering white matter and into the…

physics.optics2025

Recover Biological Structure from Sparse-View Diffraction Images with Neural Volumetric Prior

Renzhi He, Haowen Zhou, Yubei Chen +1

Volumetric reconstruction of label-free living cells from non-destructive optical microscopic images reveals cellular metabolism in native environments. However, current optical to…

physics.optics2025

Compressive Fourier-Domain Intensity Coupling (C-FOCUS) enables near-millimeter deep imaging in the intact mouse brain in vivo

Renzhi He, Yucheng Li, Brianna Urbina +2

Two-photon microscopy is a powerful tool for in vivo imaging, but its imaging depth is typically limited to a few hundred microns due to tissue scattering, even with existing scatt…

physics.optics2024★ 1 cited

Fluorescence Diffraction Tomography using Explicit Neural Fields

Renzhi He, Yucheng Li, Junjie Chen +1

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

physics.optics2024

Scattering compensation through Fourier-domain intensity coupling in two-photon microscopy

Daniel Zepeda, Yucheng Li, Yi Xue

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