Wireless system of high-speed underwater optical communication for real time transmission of video data

S.N. Kirillov; I.V. Kostkin

Wireless system of high-speed underwater optical communication for real time transmission of video data

S.N. Kirillov¹, I.V. Kostkin²

research article Pages: 80-89

¹ Dr. Sc. (Eng.), Professor, Head of Department of Radio Management and Communication, Ryazan State Radio Engineering University
² Ph. D. (Eng.), Associate Professor, Department of Radio Management and Communication, Ryazan State Radio Engineering University

Keywords: underwater optical communication video data transmission underwater images processing of images

Abstract

The model of laser radiation propagation in the aqueous medium has been developed. It allows calculating and choosing main elements for the system of wireless high-speed underwater optical communication. Prototype of the optical receive/transmit module for wireless transmission of video data from a board of a submersible in the real time mode has been developed. Laboratory and field tests of the developed prototype of the system of wireless high-speed underwater optical communication have been executed. As a result, the researches have shown that under fixed possibility of a bit error the developed prototype ensures transmission speed up to 100 Mb/s and communication range 100−150 m that exceeds foreign analogues.

How to cite

Кириллов С.Н., Косткин И.В. Беспроводная система высокоскоростной подводной оптической связи для передачи видеоданных с борта подводного аппарата в режиме реального времени // Радиотехника. 2016. № 11. С. 80–89.

References

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Heather Brundage. Designing a Wireless Underwater Optical Communication System. Master of Science in Mechanical Engineering at the Massachusetts Institute of Technology. 2010. 87 p.
Shlomi Arnon. Underwater optical wireless communication network // Journal of optical engineering. January 2010. 110 p.
Hanson, Frank andStojan Radic. High bandwidth underwater optical communication // Optical Society of America. 10 January 2008. Applied Optics. V. 47. 90 p.
Kirillov S.N., Baljuk S.A., Kuznecov S.N., Esenin A.S. Razrabotka modeli rasprostranenija opticheskogo signala v vodnojj srede dlja podvodnykh sistem peredachi informacii // Vestnik RGRTU (Rjazan). 2012. № 2 (vyp. 40). S. 3−8.
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Kirillov S.N., Kostkin I.V., Dmitriev V.T. Opticheskijj kanal peredachi videoizobrazhenijj s podvodnykh mobilnykh robotov dlja raznykh tipov vod i klimaticheskikh zon // Morskie informacionno-upravljajushhie sistemy. 2014. № 3 (6) S. 44−51.
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Bekhtin Y.S. Onboard joint nondestructive despeckling and wavelet-based data compression of multilook synthetic aperture radar images using reordered spatial orient trees // Journal of Applied Remote Sensing. 2015. V. 9(1). P. 097494. doi:10.1117/1.JRS.9.097494.
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Ahlen J. Color correction of underwater images using spectral data // Thesis of Uppsala University: Centre for Image Analysis. 2005. P. 114−123.
Snow J.B., Flatley J.P., Freeman D.E., Landry M.A., Lindstrom C.E., Longacre J.E., Shwartz J.A. Underwater propagation of high data rate laser communication pulses // SPIE 1750. 1992. P. 419−427.
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Kirillov S.N., Kostkin I.V., Pushkin V.A. Algoritm predskazanija videoposledovatelnosti na osnove metoda bisekcijj // Vestnik RGRTU (Rjazan). 2013. № 4−1 (46). S. 38−41.

[1] Francois R.E. et al. Unmanned Arctic research submersible (UARS) system development and test report // Technical Report. Applied Physics Laboratory, University of Washington. 1972. № APL-UW 7219.

[2] Bellingham J.G. Streitlien K., Overland J., Rajan S., Stein P., Stannard J., Kirkwood W., Yoerger D. An Arctic Basin observation capability using AUVs// Oceanography. 2000. V. 13. № 2. P. 4−70.

[3] Doronin JU.P. Fizika okeana. SPb.: Gidrometeoizdat. 1978. 296 s.

[4] SHifrin K.S. Vvedenie v optiku okeana. SPb.: Gidrometeoizdat. 1983. 281 s.

[5] Pratt V. Lazernye sistemy svjazi: Per. s angl. pod red. A.G. SHeremeteva. M.: Svjaz. 1972. 232 s.

[6] Heather Brundage. Designing a Wireless Underwater Optical Communication System. Master of Science in Mechanical Engineering at the Massachusetts Institute of Technology. 2010. 87 p.

[7] Shlomi Arnon. Underwater optical wireless communication network // Journal of optical engineering. January 2010. 110 p.

[8] Hanson, Frank andStojan Radic. High bandwidth underwater optical communication // Optical Society of America. 10 January 2008. Applied Optics. V. 47. 90 p.

[9] Kirillov S.N., Baljuk S.A., Kuznecov S.N., Esenin A.S. Razrabotka modeli rasprostranenija opticheskogo signala v vodnojj srede dlja podvodnykh sistem peredachi informacii // Vestnik RGRTU (Rjazan). 2012. № 2 (vyp. 40). S. 3−8.

[10] Kostkin I.V., Pushkin V.A., Locmanov A.A., Korsukov D.I. Algoritm uluchshenija kachestva podvodnykh izobrazhenijj // Vestnik RGRTU (Rjazan). 2012. № 40. S. 40−46.

[11] Garcia R., Nicosevici T., Cufi X. On the way to solve lighting problems in underwater imaging// IEEE OCEAN. 02 October 2002. P. 1018−1024.

[12] McGlamery B.L. A computer model for underwater camera system // Proc. SPIE. 1979. P. 221−231.

[13] Kirillov S.N., Kostkin I.V., Dmitriev V.T. Opticheskijj kanal peredachi videoizobrazhenijj s podvodnykh mobilnykh robotov dlja raznykh tipov vod i klimaticheskikh zon // Morskie informacionno-upravljajushhie sistemy. 2014. № 3 (6) S. 44−51.

[14] Liu Z., Y. Yu, Zhang K., Huang H. Underwater image transmission and blurred image restoration // SPIE Journal of optical Engineering. June 2001. V. 40(6). P. 1125−1131.

[15] Sidorov D.N., ANil C. Kokaram. Suppression of moir´e patterns via spectral analysis // Proceedings of SPIE in Visual Communications and Image Processing. January 2002. P. 475−493.

[16] Adelson E.H. Lightness perception and lightness illusions // The New Cognitive Neurisciences. Cambridge: MIT. 2000. P. 201−247.

[17] Kostkin I.V. Algoritm vejjvlet-szhatija nepodvizhnykh cifrovykh izobrazhenijj // Vestnik RGRTU (Rjazan). 2007. № 20. S. 114−117.

[18] Kirillov S.N., Kostkin I.V. Algoritm ehkvalizacii na osnove mnogokomponentnogo beta-raspredelenija jarkosti izobrazhenija // Vestnik RGRTU (Rjazan). 2007. № 21. S. 12−15.

[19] Bekhtin Y.S. Onboard joint nondestructive despeckling and wavelet-based data compression of multilook synthetic aperture radar images using reordered spatial orient trees // Journal of Applied Remote Sensing. 2015. V. 9(1). P. 097494. doi:10.1117/1.JRS.9.097494.

[20] Catipovic J. Performance Limitation in Underwater Acoustic Telemetry // IEEE J. Oceanic Eng. July 1990. P. 205−216.

[21] Ahlen J. Color correction of underwater images using spectral data // Thesis of Uppsala University: Centre for Image Analysis. 2005. P. 114−123.

[22] Snow J.B., Flatley J.P., Freeman D.E., Landry M.A., Lindstrom C.E., Longacre J.E., Shwartz J.A. Underwater propagation of high data rate laser communication pulses // SPIE 1750. 1992. P. 419−427.

[23] Bales J.W. and Chryssostomidis C. High handwidth, low-power, shot range optical communications under-water // International Symposium on Unhanned Untethered Submersible Technology. 1995. № 9. P. 406−415.

[24] Chancey M.A. Short range underwater communication links // Master thesis, North Carolina state University. 2005.

[25] Pat. RF na izobretenie № 2526207. Apparatura podvodnojj opticheskojj svjazi / Dmitriev V.T., Kirillov S.N., Kuznecov S.N., Locmanov A.A., Poljakov S.JU. Patentoobladatel: Federalnoe gosudarstvennoe bjudzhetnoe obrazovatelnoe uchrezhdenie vysshego professionalnogo obrazovanija «Rjazanskijj gosudarstvennyjj radiotekhnicheskijj universitet». Data publikacii patenta: 20.08.2014.

[26] Kirillov S.N., Kostkin I.V., Pushkin V.A. Algoritm predskazanija videoposledovatelnosti na osnove metoda bisekcijj // Vestnik RGRTU (Rjazan). 2013. № 4−1 (46). S. 38−41.

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