textabstractThis paper presents a relationship between the intensity collected by a single fiber reflectance device (RSF) and the fiber diameter (dfib) and the reduced scattering coefficient (μ's) and phase function (p(θ)) of a turbid medium. Monte Carlo simulations are used to identify and model a relationship between RSF and dimensionless scattering (μ'sdfib). For μ'sdfib > 10 we find that RSF is insensitive to p(θ). A solid optical phantom is constructed with μ's ≈ 220 mm-1 and is used to convert RSF of any turbid medium to an absolute scale. This calibrated technique provides accurate estimates of μ's over a wide range ([0.05-8] mm-1) for a range of dfib ([0.2-1] mm)
Quantitative determination of fluorophore content from fluorescence measurements in turbid media, su...
Recent focused Monte Carlo and experimental studies on steady-state single-fiber reflectance spectro...
Quantitative determination of fluorophore content from fluorescence measurements in turbid media, su...
This paper presents a relationship between the intensity collected by a single fiber reflectance dev...
Multiple diameter single fiber reflectance (MDSFR) measurements of turbid media can be used to deter...
Multiple diameter single fiber reflectance (MDSFR) measurements of turbid media can be used to deter...
This study utilizes experimentally validated Monte Carlo simulations to identify a mathematical form...
textabstractMultidiameter single fiber reflectance (MDSFR) spectroscopy is a method that allows the ...
Multidiameter single fiber reflectance (MDSFR) spectroscopy is a method that allows the quantificati...
Multidiameter single fiber reflectance (MDSFR) spectroscopy is a method that allows the quantificati...
Significance: We recently developed a model for the reflectance measured with (multi-diameter) singl...
Single fiber reflectance spectroscopy is a method to noninvasively quantitate tissue absorption and ...
textabstractMulti-diameter single fiber reflectance (MDSFR) spectroscopy enables quantitative measur...
textabstractMulti diameter single fiber reflectance (MDSFR) spectroscopy is a non-invasive optical t...
textabstractQuantitative determination of fluorophore content from fluorescence measurements in turb...
Quantitative determination of fluorophore content from fluorescence measurements in turbid media, su...
Recent focused Monte Carlo and experimental studies on steady-state single-fiber reflectance spectro...
Quantitative determination of fluorophore content from fluorescence measurements in turbid media, su...
This paper presents a relationship between the intensity collected by a single fiber reflectance dev...
Multiple diameter single fiber reflectance (MDSFR) measurements of turbid media can be used to deter...
Multiple diameter single fiber reflectance (MDSFR) measurements of turbid media can be used to deter...
This study utilizes experimentally validated Monte Carlo simulations to identify a mathematical form...
textabstractMultidiameter single fiber reflectance (MDSFR) spectroscopy is a method that allows the ...
Multidiameter single fiber reflectance (MDSFR) spectroscopy is a method that allows the quantificati...
Multidiameter single fiber reflectance (MDSFR) spectroscopy is a method that allows the quantificati...
Significance: We recently developed a model for the reflectance measured with (multi-diameter) singl...
Single fiber reflectance spectroscopy is a method to noninvasively quantitate tissue absorption and ...
textabstractMulti-diameter single fiber reflectance (MDSFR) spectroscopy enables quantitative measur...
textabstractMulti diameter single fiber reflectance (MDSFR) spectroscopy is a non-invasive optical t...
textabstractQuantitative determination of fluorophore content from fluorescence measurements in turb...
Quantitative determination of fluorophore content from fluorescence measurements in turbid media, su...
Recent focused Monte Carlo and experimental studies on steady-state single-fiber reflectance spectro...
Quantitative determination of fluorophore content from fluorescence measurements in turbid media, su...