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Imaging an object embedded within a scattering medium requires the correctionof complex sample-induced wave distortions. Existing approaches have beendesigned to resolve them by optimizing signal waves recorded in each 2D image.Here, we present a volumetric image reconstruction framework that merges twofundamental degrees of freedom, the wavelength and propagation angles of lightwaves, based on the object momentum conservation principle. On this basis, wepropose methods for exploiting the correlation of signal waves from volumetricimages to better cope with multiple scattering. By constructing experimentalsystems scanning both wavelength and illumination angle of the light source, wedemonstrated a 32-fold increase in the use of signal waves compared with thatof existing 2D-based approaches and achieved ultrahigh volumetric resolution(lateral resolution: 0.41 um, axial resolution: 0.60 um) even within complexscattering medium owing to the optimal coherent use of the extremely broadspectral bandwidth (225 nm).

Exploiting volumetric wave correlation for enhanced depth imaging in scattering medium