Inspection of orientation of micro fibres in dried wood by a diffractive optical element

Optics and Lasers in Engineering

Volumn 33, Issue 1, 2000, Pages 29-38

  Silvennoinen, Raimo ^a   Wahl, Paul ^a   Vidot, Jérome ^b  

^a UNIVERSITY OF EASTERN FINLAND   (Finland)

^b Universite des Sciences   (France)

Author keywords

[No Author keywords available]

Indexed keywords

DIFFRACTIVE OPTICS; NATURAL FIBERS; OPTICAL PROPERTIES; OPTICAL SENSORS; WOOD;

DIFFRACTIVE OPTICAL ELEMENTS; FIBER ORIENTATION; WOOD FIBERS;

HOLOGRAPHIC OPTICAL ELEMENTS;

EID: 0033687485     PISSN: 01438166     EISSN: None     Source Type: Journal    
DOI: 10.1016/S0143-8166(00)00025-7     Document Type: Article

References (18)

1. Tsoumis G. Science and technology of wood. structure, properties, utilization:1991;Chapman & Hall, New York.
2. Saikku O. The effect of fertilization on the basic density of Scots Pine. Commun Inst Fenn. 85(3):1975;1-49.
3. Kellomäki S. The effect of solar radiation and air temperature on basic density of Scots pine wood. Silva Fennica. 13(4):1979;304-315.
4. Hakkila P. Wood density survey and weight tables for pine, spruce and birch stems in Finland. Commun Inst Fenn. 96(3):1979;1-59.
5. Kubelka P. New contribution to the optics of intensely high scattering materials Part I. J Opt Soc Am. 38:1948;448-457.
6. Goodman J.W. Statistical properties of laser speckle patterns. Laser speckle and related phenomena. 1975;Springer, Berlin.
7. Takai N., Kadono H., Asakura T. Statistical properties of the speckle phase in image and diffraction fields. Opt Eng. 25(5):1986;627-635.
8. Kadono H., Takai N., Asakura T. Statistical properties of the speckle phase in diffraction region. J Opt Soc Am A. 3:1986;1080-1089.
9. Silvennoinen R., Wahl P. A diffractive optics based sensor for simultaneous inspection of reflected and transmitted light from porous materials SPIE. (Optical Engineering for Sensing and Nanotechnology; ICOSN '99). 3740:1999;246-249.
10. Silvennoinen R., Peiponen K.-E., Asakura T. Diffractive optical elements in materials inspection. Asakura T. The international trends in optics and photonics ICO IV, Part VI Optical metrology (Optical Systems). 1999;282-293 Springer, Berlin.
11. Hanhijärvi A, Silvennoinen R, Wahl P. Modelling of micro-cracking in wood-presentation of on-going project, International Conference of COST Action E8 Wood Mechanics (Theme: Damage in wood), May 27-28, France, 1999, 4. (in press).
12. Silvennoinen R., Peiponen K.-E., Laakkonen P., Ketolainen J., Suihko E., Paronen P., Räsänen J., Matsuda K. On the optical inspection of the surface quality of pharmaceutical tablets. Meas Sci Technol. 8:1997;550-554.
13. Latta J.N. Computer-based analysis of hologram imagenary and aberrations I. Hologram types and their nonchromatic aberrations. Appl Opt. 10:1972;599-608.
14. Latta J.N. Computer-based analysis of hologram imagenary and aberrations II. Aberrations induced by a wavelength shift. Appl Opt. 10:1972;609-618.
15. Roux F.S. Wavelength dependence of thin diffractive lenses. Opt Eng. 33(9):1994;2843-2848.
16. Kliger D.S., Lewis J.W., Randall C.E. Polarized light in optics and spectroscopy. 1990;Academic Press, Boston.
17. Kundikova N.D. The mutual influence of polarization and propagation of the light and the symmetry of a space. SPIE. 3749:1999;136-137.
18. Kundikova N.D., Ya Zel'dovich B. Spin-orbit interactions of a photon. theory and experimentation on the mutual influence of polarization and propagation Asakura T. The international trends in optics and photonics ICO IV, Part I Fundamental Optics (General, Physical and Quantum Optics). 1999;27-39 Springer, Berlin.