DOI:
10.18413/2518-1092-2018-3-1-53-57
OPTICAL COMMUTATION BASED ON THE CHANGE OF AN OPTICAL FIBER ARRAY CONDUCTIVITY IN COLLIMATE TYPE DEVICES
To realize a photon network, functioning components and commutating systems capable of processing optical signals, are essential. The transformation of an optical signal into an electrical one as well as its reverse takes place in a signal source or its receiver. Up to the present, the main problem in constructing of all-optical networks is the lack of appropriate optical switchboards. The present work describes the way of optical flows commutation based on the changing of an optical fiber array conductivity.
Keywords: optical flow commutation,
optical fiber array,
conductivity of an optical fiber,
power distribution,
amplitude-phase distribution.
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1. Corzo, V. Large Bragg Reflection from One-Dimensional Chains of Trapped Atoms Near a Nanoscale Waveguide / Corzo Neil V., Baptiste Gouraud Ritsch // Physical review vol. 117, lss. 13 – Published 23 September 2016.
2. Horak, P. Quantum Description of light-pulse scattering on a single atom in waveguides / Peter Domokos, Peter Horak, Helmut Ritsch // Physical review A vol. 65, lss. 3 – Published 1 march 2002.
3. Arhipov, S.N. The algorithm reaches the prostate on the basis of the mods interactions in optical collimating devices of the type/ Arkhipov S.N., Chistykov S.V., Bezruchko V.V. // Volume 8, the collected scientific papers of the 8th inter-departmental conference of the Academy of the FSB of Russia, abstracts of Moscow, 2013. – pp. 125-138.
4. Arkhipov, S. N. Efficiency indices of spatial signal processing in mirror-type collimating systems / Arkhipov S.N., Ermishin G.A., Sakhonchik V.D. // Telecommunication and Radio Engineering volume 72, number 2. – New York (Connecticut), 2013. – pp. 125-138.
5. Voskresenskyi, D.I. Computer-aided design of antennas and microwave devices. Textbook for high schools / Voskresenskyi D.I., Kremenesckyi C.D., Grinev A.U., Kotov U.V. - M.: Radio and communication, 1988.–240 p.
6. Semenov, А.А. The theory of electromagnetic waves / Semenov, А.А. – M.: Izd. Moscow State University, 1968. – 347 p.
7. Markov, G.T. Excitation of electromagnetic waves / Markov G.T, Chaplin A.F.– 2nd ed., pererab. I additional-M.: Radio and communication, 1983. – 296 p.
8. Volman, V.I. Technical electrodynamics / Volman V.I., Pimenov U.V. – M.: Communication, 1977. – 486 p.
9. Velichko, V.V. Basics of information and communication technologies., Velichko V.V., Katunin G.P., Shuvalov V.P., under the editorship of professor Shuvalov V.P., textbook for high schools, 2009. p. 361-419.
10. Gubanova L.A., Konstantinova U.A. Optical technology. Teaching aid-St. Petersburg: ITMO University, 2018. – 62 p.