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Optical Society of America

A good introduction to the physics of laser cooling and trapping can be found in two special issues of tire Journal of the Optical Society of America B. These are ... [Pg.2482]

G. Kubiak and D. Kania, eds., OSA Trends in Optics and Photonics on Extreme UItraviolet Eithography, Optical Society of America, Washington, D.C., 1996. [Pg.138]

B. MacChesney, D. W. Johnson, P.. Lemaire, L. G. Cohen, and E. M. Rabinovich, "FluorosUicate Substrate Tubes to Eliminate Leaky-Mode Losses in MCVD Single-Mode Fibers with Depressed Index Cladding," paper no. WH2 in Technica/ Digest of Optica/ Fiber Communications Conference, San Diego, Ca/if, Optical Society of America, Washington, D.C., 1985. [Pg.260]

Additional sources are the Journal of Applied Optics and the Journal of the Optical Society of America, particularly for surface properties the Jour nal of Quantitative Spectroscopy and Radiative Transfer for gas properties the Jour -nal of Heat Tr ansfer andthe Inter national Journal of Heat and Mass Tr ansfer lor broad coverage and the Jour nal of the Institute of Ener gy for applications to industrial furnaces. [Pg.569]

Sugar, J. [1963] Analysis of the Third Spectrum of Praseodymium , Journal of the Optical Society of America, 53, p. 831. [Pg.34]

Neeves, A.E. and Birnboim, M.H. (1989) Composite structures for the enhancement of nonlinear-optical susceptibility. Journal of the Optical Society of America B - Optical Physics, 6, 787-796. [Pg.346]

Delori, F. C. et al. (2001). Macular pigment density measured by autofluorescence spectrometry Comparison with reflectometry and heterochromatic flicker photometry. Journal of the Optical Society of America A 18 1212-1230. [Pg.84]

Azema, A. Jain, K. Twieg, R. "Phase Matching Properties of Nitropyridines," Optical Society of America Annual Meeting, October 18-22, 1982 Tuscon, AZ. [Pg.80]

Fig. 5.1 Four mirror ring cavity model. Left, microcavity and tapered fiber in contact. Light can couple from the fiber into the resonator and back into the fiber. Right, the four mirror ring cavity equivalent. The top mirror is partially transmitting all others have 100% reflectivity. Reprinted from Ref. 3 with permission. 2008 Optical Society of America... Fig. 5.1 Four mirror ring cavity model. Left, microcavity and tapered fiber in contact. Light can couple from the fiber into the resonator and back into the fiber. Right, the four mirror ring cavity equivalent. The top mirror is partially transmitting all others have 100% reflectivity. Reprinted from Ref. 3 with permission. 2008 Optical Society of America...
Fig. 5.2 Hemispherical prism coupling scheme. The microsphere is in a V groove channel for the solvent and analyte. Left, polar view showing input and output coupling. Right, equatorial view illustrating how precessed light is collected at the drop port. Reprinted from Ref. 3 with permission 2008 Optical Society of America... Fig. 5.2 Hemispherical prism coupling scheme. The microsphere is in a V groove channel for the solvent and analyte. Left, polar view showing input and output coupling. Right, equatorial view illustrating how precessed light is collected at the drop port. Reprinted from Ref. 3 with permission 2008 Optical Society of America...
Fig. 5.3 Experimental setup. Light from a frequency scanned cw diode laser is launched into a bitapered fiber to excite WGMs of the microresonator. The microresonator is held in a PZT fixture for tuning and locking purposes inset). Reprinted from Ref. 4 with permission. 2008 Optical Society of America... Fig. 5.3 Experimental setup. Light from a frequency scanned cw diode laser is launched into a bitapered fiber to excite WGMs of the microresonator. The microresonator is held in a PZT fixture for tuning and locking purposes inset). Reprinted from Ref. 4 with permission. 2008 Optical Society of America...
Fig. 6.5 RI sensitivity as a function of the OFRR wall thickness for the first three WGMs. The polymer thickness is fixed at 1 pm. Other parameters are the same as in Fig. 6.4. Reprinted from Ref. 29 with permission. 2008 Optical Society of America... Fig. 6.5 RI sensitivity as a function of the OFRR wall thickness for the first three WGMs. The polymer thickness is fixed at 1 pm. Other parameters are the same as in Fig. 6.4. Reprinted from Ref. 29 with permission. 2008 Optical Society of America...
Fig. 6.6 (a) k2 as a function of polymer thickness for the first three WGMs. Dashed line indicates the k2 position for the first order ring resonator wall mode in the absence of the polymer layer. The simulation parameters are the same as in Fig. 6.4, except that the polymer RI, n2, is 1.7. (b) The WGM radial distribution of the second order mode for various polymer thicknesses indicated by the arrows in (a). Vertical lines indicate the boundaries of the ring resonator wall and the polymer layer. Reprinted from Ref. 29 with permission. 2008 Optical Society of America... [Pg.131]

Fig. 6.9 OERR response to various part per million (ppm) concentrations of ethanol and hexane vapors. The OERR is coated with a 200 nm thick OV 17 (a) and PEG 400 (b). Insets are the sensorgrams taken by monitoring the WGM shift in real time. Reprinted from Ref. 28 with permission. 2008 Optical Society of America... Fig. 6.9 OERR response to various part per million (ppm) concentrations of ethanol and hexane vapors. The OERR is coated with a 200 nm thick OV 17 (a) and PEG 400 (b). Insets are the sensorgrams taken by monitoring the WGM shift in real time. Reprinted from Ref. 28 with permission. 2008 Optical Society of America...
Fig. 7.4 Fabrication procedures of a multicavity fiber FPI sensor. Reprinted from Ref. 11 with permission. 2008 Optical Society of America... Fig. 7.4 Fabrication procedures of a multicavity fiber FPI sensor. Reprinted from Ref. 11 with permission. 2008 Optical Society of America...
Fig. 7.19 Spectra of a weak LPG pair, separated by 30 cm, with bending in the middle (thicker curve, no peaks) and without bending (peaked curve). Each grating has 400 pm periodicity and a 20 mm length. The fringe spacing is roughly 0.72 nm. Reprinted from Ref. 25 with permission. 2008 Optical Society of America... Fig. 7.19 Spectra of a weak LPG pair, separated by 30 cm, with bending in the middle (thicker curve, no peaks) and without bending (peaked curve). Each grating has 400 pm periodicity and a 20 mm length. The fringe spacing is roughly 0.72 nm. Reprinted from Ref. 25 with permission. 2008 Optical Society of America...

See other pages where Optical Society of America is mentioned: [Pg.409]    [Pg.424]    [Pg.11]    [Pg.12]    [Pg.34]    [Pg.248]    [Pg.137]    [Pg.298]    [Pg.129]    [Pg.153]   
See also in sourсe #XX -- [ Pg.34 ]




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