Resonant cavity enhancement

Resonance Raman scattering, 21 326-327 Resonance stabilization of benzene, 3 599 Resonance theory, 20 774 Resonant cavity, 14 851 Resonant-cavity enhanced structures,... [Pg.802]

Another major application for microresonators is in development and fabrication of novel light sources such as resonant-cavity-enhanced light-emitting diodes (LEDs), low-threshold microlasers, and colour flat-panel displays. In wavelength-sized microresonator stmctures, semiconductor material luminescence can be either suppressed or enhanced, and they also enable narrowing of the spectral linewidth of the emitted light (Haroche, 1989 Yokoyama, 1992 Yamamoto, 1993 Krauss, 1999 Vahala, 2003). [Pg.54]

Seletskiy, D.V., Hasselbeck, M.P., Sheik-Bahae, M., 2010a. Resonant cavity-enhanced absorption for optical refrigeration. Appl. Phys. Lett. 96(18), 181106-181103. [Pg.259]

M.S. Unlii, S. Strite, Resonant cavity enhanced photonic devices. J. Appl. Phys. 78(2), 607-639 (1995)... [Pg.245]

S. Murtaza, K. Anselm, C. Hu, H. Me, B. Streetman, J. Campbell, Resonant-cavity enhanced (RCE) separate absorption and multiplication (SAM) avalanche photodetector (APD). IEEE Photonics Technol. Lett 7(12), 1486-1488 (1995)... [Pg.245]

M.S. Unlii, BJM. Onat, Y. Leblebici, Transient simulation of heteiojunction photodiodes-pait II analysis of resonant cavity enhanced photodetectors. Lightwave Technol. J. 13(3), 406 15 (1995)... [Pg.246]

E. Ozbay, M. S. Mam, B. Onat, M. Gokkavas, O. Aytur, G. Tiittle, E. Towe, R. Henderson et al.. Fabrication of high-speed resonant cavity enhanced Schottky photodiodes. IEEE Photonics Technol. Lett 9(5), 672-674 (1997)... [Pg.246]

R. Sidhu, H. Chen, N. Duan, G. Karve, J. Campbell, A. Holmes, GaAsSb resonant-cavity enhanced avalanche photodiode optaating at 1.06 pm. Electron. Lett. 40(20), 1296—1297... [Pg.246]

X. Chen, B. Nabet, E. ( uaranta. A, Cola, M. Currie, Resonant-cavity-enhanced heterostructure metal-semiconductor-metal photodetector. Appl. Phys. Lett. 80(17), 3222-3224 (2002)... [Pg.246]

M. tinlii, K. Kishino, J.-I. Chyi, L. Arsenault, J. Reed, S.N. Mohammad, H. Morko , Resonant cavity enhanced AIGaAs/GaAs heterojunction phototransistors with an intermediate InGaAs laytr in the collector. AppL Phys. Lett. 57(8), 750-752 (1990)... [Pg.246]

J. Wehner, C. Musca, R. Sewell, J. Dell, L. Faraone, Mercury cadmium telluride resonant-cavity-enhanced photoconductive infrared detectors. Appl. Phys. Lett., 87(21), 211104-211104-3 (2005)... [Pg.246]

A.M. Green, D.G. Gevaux, C. Roberts, C.C. Phillips, Resonant-cavity-enhanced photodetectors and LEDs in the mid-infrared. Phys. E 20(3), 531-535 (2004)... [Pg.246]

The second equihbrium group encompasses strucmres for increase in the optical path of the beam which already entered the active area of the detector, the so-called light trapping structures. These structures simultaneously increase radiative lifetime through the mechanism of reabsorption—photon recycling. They include different surface rehef stmctures for the increase in total internal reflection, from diflractive to macroscopic ones. Reflective detector surfaces also belong to this group, both the back-side ones and fuU resonant cavities (RCE—resonant cavity enhancement) with reflective surfaces both of the front and the back side of the detector. The most advanced stmctures for optical path and radiative time increase are radiative shields and photonic crystal enhancement stmcmres, which represent a fuU cavity enhancement and may support the existence of multiple modes. [Pg.266]

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