Physics in Medicine and Biology · 2008 · 21 citations · 31 references
EngineeringBioengineeringBiomedical EngineeringBiomedical ImagingBiomedical OpticsBiophotonicsFluorescence ImagingFluorescence MicroscopyLight-tissue InteractionOptical ImagingTissue Optical PropertiesTissue OpticsFluorescence Image ReconstructionForward Imaging ModelIn Vivo Fluorescence ImagingPoint SourcesQuantitative Fluorescence ImagingSource Strength EstimationTissue HeterogeneityTissue Heterogeneity Effects
A planar imaging approach is described for the in vivo quantitative reconstruction of fluorescent point sources in small animals. The method uses the diffusion approximation as a forward model of light propagation from a point source in a homogeneous tissue to find source depth and strength. The tissue optical properties obtained from video reflectometry measurements were used to compensate for the effects of tissue heterogeneity. The method was evaluated on images of fluorescent sources implanted 2-8.5 mm deep in the thigh and abdomen of rats post mortem. In more than 70% of the total number of implants the source depth was retrieved with an error of less than 1 mm. The largest absolute error was 1.9 mm. In retrieving source strength, the errors ranged from 0.4% to 89% generally increasing with increased source depth.
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G. David Roodman · New England Journal of Medicine · 2004 · 2.7K citations
Medicine, Oncology, Bone Metabolism +12
Thomas J. Farrell, Michael S. Patterson, Brian C. Wilson · Medical Physics · 1992 · 1.4K citations
Light scattering in lntralipid-10% in the wavelength range of 400–1100 nm
Hugo J. van Staveren, Christian J. M. Moes, Jan van Marie et al. · Applied Optics · 1991 · 1.1K citations