The goal of this project is to develop practical methods for quantitative, depth-resolved optical imaging in scattering media. Toward this end, reconstruction techniques based on photon time-of-flight and autocorrelation measurements of diffuse reflectance are being studied. The approach employs an
β¦ LIBER β¦
Diffuse time tomography of isotropic random media
β Scribed by Gregory Samelsohn
- Publisher
- Elsevier Science
- Year
- 2010
- Tongue
- English
- Weight
- 109 KB
- Volume
- 405
- Category
- Article
- ISSN
- 0921-4526
No coin nor oath required. For personal study only.
π SIMILAR VOLUMES
Optical tomography in scattering media f
β
William F. Long; David H. Burns
π
Article
π
1999
π
John Wiley and Sons
π
English
β 148 KB
π 1 views
Quantitative evaluation of nonlinear dif
β
Kenji Sato; Hideki Nagashima
π
Article
π
2005
π
Elsevier Science
π
English
β 361 KB
Diffusion in porous media of a random st
β
L.M. Pismen
π
Article
π
1974
π
Elsevier Science
π
English
β 900 KB
The present paper deals with diffusion in a porous solid, which is considered as a discrete random medium composed of random structural elements (pores) chaotically connected with each
Diffuse tomography: Using time-of-flight
β
F. Alberto GrΓΌnbaum
π
Article
π
2000
π
John Wiley and Sons
π
English
β 57 KB
π 1 views
## Abstract We show that timeβofβflight data can be useful in a simple model of optical tomography. Β© 2001 John Wiley & Sons, Inc. Int J Imaging Syst Technol, 11, 283β286, 2000
Maximum time-resolved hemispherical refl
β
Kyle D. Smith; Kamal M. Katika; Laurent Pilon
π
Article
π
2007
π
Elsevier Science
π
English
β 378 KB
Time domain modeling of pulse propagatio
β
G. Norton; J. Novarini
π
Article
π
2005
π
Elsevier Science
π
English
β 161 KB