Two photoacoustic spectral coloring compensation techniques adapted to the context of human in-vivo oxygenation measurements
Photoacoustic imaging can potentially map oxygen saturation (sO2) non-invasively. However, in-vivo human application is challenging due to spectral coloring, which causes a wavelength-dependent fluence attenuation and uncertainty in the estimation of chromophore concentrations deep in tissue. This study compares the performances of two previously proposed methods for spectral coloring compensation
