Time-resolved transmittance spectroscopy was performed in the wavelength range of 610 or 700 to 1050 nm on phantom parallelepipeds and bone tissue cubes of different sizes. The data were best fitted with solutions of the diffusion equation for a laterally infinite slab and for a parallelepiped to investigate how size and optical properties of the samples affect the results obtained with the two models. Monte Carlo simulations were also performed to support and help with the interpretation of the experimental data. The parallelepiped model performs much better than the infinite slab model for the estimate of the reduced scattering coefficient and, even more, the absorption coefficient. It can profitably be used to quantify the optical proper...
In most biological tissues, absorbers such as blood in the blood vessels are localized within a low-...
The use of laser-based optical techniques for medical imaging is an attractive alternative to other ...
Solid homogeneous turbid phantoms can be employed to mimic the attenuation and angular distribution ...
We report the development of a compact time-resolved system for the measurement of the optical prope...
The suitability and limits of time-resolved transillumination to determine inner details of biologic...
The applicability of diffusion theory for the determination of tissue optical properties from time-r...
We present a simple, convenient fibre-optics probe system for the determination optical properties o...
A novel straightforward, accessible and efficient approach is presented for performing hyperspectral...
In this work, inverse diffusion equation and Monte Carlo methods are used in conjunction with diffus...
We present a systematic characterization of the optical properties (µa and µs') of nine representati...
Time-resolved diffuse optical spectroscopy provides non-invasively the optical characterization of h...
A numerical method is presented to solve exactly the time-dependent diffusion equation that describe...
Reduction in scattering, high absorption, and spectral features of tissue constituents above 1000 nm...
Most biological tissues consist of layers with different optical properties. A few examples are the ...
In most biological tissues, absorbers such as blood in the blood vessels are localized within a low-...
The use of laser-based optical techniques for medical imaging is an attractive alternative to other ...
Solid homogeneous turbid phantoms can be employed to mimic the attenuation and angular distribution ...
We report the development of a compact time-resolved system for the measurement of the optical prope...
The suitability and limits of time-resolved transillumination to determine inner details of biologic...
The applicability of diffusion theory for the determination of tissue optical properties from time-r...
We present a simple, convenient fibre-optics probe system for the determination optical properties o...
A novel straightforward, accessible and efficient approach is presented for performing hyperspectral...
In this work, inverse diffusion equation and Monte Carlo methods are used in conjunction with diffus...
We present a systematic characterization of the optical properties (µa and µs') of nine representati...
Time-resolved diffuse optical spectroscopy provides non-invasively the optical characterization of h...
A numerical method is presented to solve exactly the time-dependent diffusion equation that describe...
Reduction in scattering, high absorption, and spectral features of tissue constituents above 1000 nm...
Most biological tissues consist of layers with different optical properties. A few examples are the ...
In most biological tissues, absorbers such as blood in the blood vessels are localized within a low-...
The use of laser-based optical techniques for medical imaging is an attractive alternative to other ...
Solid homogeneous turbid phantoms can be employed to mimic the attenuation and angular distribution ...