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Waveguide coupling

Fig. 9. The TE01i cylindrical resonant cavity. The manner in which the waveguide couples to the cavity is also shown. The symbols X and represent the Ei field or the current distribution (35). Fig. 9. The TE01i cylindrical resonant cavity. The manner in which the waveguide couples to the cavity is also shown. The symbols X and represent the Ei field or the current distribution (35).
Lavers C.R., Wilkinson J.S., A waveguide-coupled surface plasmon sensor for an aqueous environment, Sens. andActuat. B 1994 22 75-81. [Pg.280]

C., Floekstra Fl.J.W.M.and Driessen A., Vertically and laterally waveguide-coupled cylindrical micro resonators in SisN4 on SiC>2 technology, Appl. Phys. B 2001 73 603-608. [Pg.294]

White, I. M. Gohring, J. Sun, Y. Yang, G. Lacey, S. Fan, X., Versatile waveguide coupled opto fluidic devices based on liquid core optical ring resonators, Appl. Phys. Lett. 2007, 91, 241104... [Pg.144]

Nonconventional fluorimeters and sensors that incorporate optical waveguide coupling possess less optical attenuation in the near-IR as compared with the UV/vis-ible because of the reduction in Rayleigh scattering. The temporal dispersion is also reduced in the near-IR for the same reason, e.g., 80 psec/nm/km at 900 nm as compared with 1 nsec/nm/km at 400 nm for a single-mode fiber. [Pg.388]

Chin M.K. and Ho, S.T., 1998, Design and modeling of waveguide-coupled single-mode microring resonators, J. Lightwave Technol. 16(8) 1433-1446. [Pg.63]

Chremmos, I.D., Uzunoglu, N.K., 2004, Transmission and radiation in a slab waveguide coupled to a whispering-gallery resonator volume-integral-equation analysis, J. Opt. Soc. Hm.H21(5) 839-846. [Pg.64]

Fong, C.Y. and Poon, A.W., 2003, Mode field patterns and preferential mode coupling in planar waveguide-coupled square microcavities. Opt Express ll(22) 2897-2904. [Pg.64]

Fig. 7 Optical waveguide-coupling methods, (a) end-firing focused beam and end-firing optical fiber (b) prism coupling (c) grating coupling... Fig. 7 Optical waveguide-coupling methods, (a) end-firing focused beam and end-firing optical fiber (b) prism coupling (c) grating coupling...
Surface Plasmon Waveguide Coupling in Optical Fibers.212... [Pg.209]

Weisser M, Menges B, Mittler-Neher S (1999) Refractive index and thickness determination of monolayers by multi mode waveguide coupled surface plasmons. Sensors Actuators B Chem 56 189-197... [Pg.227]

Fig. 5 Coupling schemes of incident light to surface plasmons (a) prism coupling, (b) experimental setup for the fiber-optic SPR microsensor, (c) waveguide coupling (Reprinted from [83] with permission of Elsevier), and (d) grating coupling... Fig. 5 Coupling schemes of incident light to surface plasmons (a) prism coupling, (b) experimental setup for the fiber-optic SPR microsensor, (c) waveguide coupling (Reprinted from [83] with permission of Elsevier), and (d) grating coupling...
Figure 6.3 The Mark II cavity spectrometer viewed through its Perspex cover. The spatial filter is visible in the centre of the case. The translation stage and piezoelectric actuator are seen in the foreground and operate via the bellows to move the near mirror. The coupling iris is in the centre of the far mirror. The waveguide couplings holding the mica vacuum windows can be seen either side of the case in the background. Sample inlet is on the left wall of the case not visible and outlet is on the right via the pressure sensor... Figure 6.3 The Mark II cavity spectrometer viewed through its Perspex cover. The spatial filter is visible in the centre of the case. The translation stage and piezoelectric actuator are seen in the foreground and operate via the bellows to move the near mirror. The coupling iris is in the centre of the far mirror. The waveguide couplings holding the mica vacuum windows can be seen either side of the case in the background. Sample inlet is on the left wall of the case not visible and outlet is on the right via the pressure sensor...
Chip loss-5.5 dB Fiber to waveguide Coupling loss 0.45dB... [Pg.1300]

GI lens and a half-mirror is shown in Fig. 11. There is one component made of coupled fibers in which two fibers are placed so that the light in the two fibers can be coupled with each other (i.e., light propagating in one waveguide couples into the other while propagating along the guide). [Pg.122]


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See also in sourсe #XX -- [ Pg.41 ]




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