Content
Abstract:
Efficiency analysis of optical (photo and radiometric) method of oil contamination detection based on differences between reflective characteristics of clean and oil-contaminated water surfaces was conducted with sounding wave selection in UV, visible, near-infrared and medium-infrared regions of the spectrum. It is shown that, in terms of eye safety, width of thickness interval of detected oil films and atmospheric attenuation, the most promising type of sounding for monitoring of oil contamination is UV sounding at a wavelength of 0.355 µm, which allowing to detect oil films with thickness of at least 2 µm reliably with probability of correct detection exceeding 0.9 and probability of false alarms of 0.002 with relative measurement noise not exceeding 5 %.
References:
1. Grec A., Maior C. Earth oil extraction - major environmental pollution source // Environmental Engineering and Management Journal, 2008, Vol. 7, No. 6, pp. 763-768. 2. Hofer T.N. Marine Pollution: New Research // Nova Science Publishers Inc., New York, 2008, 423 p. 3. Kataev M. Yu., Lukyanov A.K. Modelirovanie otrazhennogo solnechnogo izluche-niia dlia otsenki gazovogo sostava atmosfery pri opticheskom distantsionnom zondirovanii iz kosmosa [Modelling of Reflected Solar Radiation for Estimation of Gas Content of Atmosphere during Remote Optical Sounding from Outer Space] // Svetotekhnika, 2017, Vol. 6, pp. 44-50. 4. Kozintsev V.I., Orlov V.M., Belov M.L., Gorodnichev V.A., Strelkov B.V. Optiko-elektronnye sistemy ekologicheskogo monitoringa prirodnoi sredy [Optoelectronic Systems of Environmental Monitoring] // MSTU Publ., Moscow, 2002, 528 p. 5. Tendentsii i dinamika sostoianiia i zagriazneniia okruzhaiushchei sredy v Rossiiskoi Federatsii po dannym mnogoletnego monitoringa za poslednie desiat let [Trends and Dynamics if Environmental Condition and Pollution in the Russian Federation Based on Results of Longstanding Monitoring for Previous Ten Years] // Rosgidromet, Moscow, 2017, 51 p. 6. Kopelevich O.V. Ispolzovanie vidimogo izlucheniia pri osvoenii i issledovanii morei i okeanov [Application of Visible Radiation for Exploration and Research of Seas and Oceans] // Svetotekhnika, 2017, Vol. 2, pp. 13-22. 7. Asiareport. Marshruty morskikh postavok nefti udliniaiutsia [Routes of Oil Sea Transportation Elongate]. URL: http://asiareport.ru/index.php/ analitics/40547Ч marshruty-morskix-postavok-nefti-udlinyayutsya-.html (reference date: 15.10.2018). 8. Prestige oil spill. URL: https://www.reviewessays. com/Business/Prestige-Oil-Spill/55203.html (reference date: 15.10.2018). 9. Deepwater Horizon Accident Investigation Report. URL: https://www.bp.com/content/dam/bp/pdf/ sustainability/issue-reports/Deepwater_Horizon_Accident_Investigation_Report_Executive_ summary.pdf (reference date: 15.10.2018). 10. Measures R.M. Laser remote sensing. Fundamentals and applications // Krieger Publishing Company, Florida, 1992, 510 р. 11. Oil in the Sea // National Academy Press, Washington, D.C., 1985, 588 p. 12. Leontiev V.V. Radioelektronnye sredstva ekologicheskogo kontrolia dlia obnaruzheniia i izmereniia kharakteristik razliva nefti na vodnoi poverkhnosti [Radioelectronic Means of Environmental Monitoring for Detection and Mesurement of Characteristics of Oil Spillages on Water Surface] // LETI Publ., Saint-Petersburg, 2001, 40 p. 13. Kozintsev V.I., Belov M.L., Gorodnichev V.A., Smirnova O.A., Fedotov Yu.V., Khroustaleva A.M. Lidar method of oil pollution detection on rough sea surface // Proc. SPIE, 2005, Vol. 5829, pp. 255-264. 14. Fedotov Yu.V. Impact of spectral bands number on classification accuracy of oil pollutions using laser induced fluorescence // Proc. SPIE, 2005, Vol. 10466, pp. 1-6. 15. Fingas M., Brown C. Review of oil spill remote sensing// Marine Pollution Bulletin, 2014, Vol. 83, No. 1, pp. 9-23. 16. Sergievskaya I, Ermakov S. Oil films detection on the sea surface using an optical remote sensing method // Proc. SPIE, 2012, Vol. 8532, pp. 85320P-1-85320P-6. 17. Sun S., Hu C. Sun glint requirement for the remote detection of surface oil films // Geophys. Res. Lett., 2016, Vol. 43, pp. 309-316. 18. Panova P.V. The airborne remote systems for offshore oil seepage detection // S E S2 0 0 5 Scientific Conference УSPACE, ECOLOGY, SAFETYФ with International Participation, 10-13 June 2005, Varna, Bulgaria, pp. 236-241. URL: http://www.cpnt.ru/userfiles/Airborn_ systems_for_offshore_seepage_ detection(1).pdf. 19. Krotikov V.D., Mordvinkin I.N., Pelyushenko A.S., Pelyushenko S.A., RakutТ I.V. Radiometric methods of remote sensing of oil spills on water surface // Radiophysics and Quantum Electronics, 2002, Vol. 45, No. 3, pp. 220-229. 20. Dolenko T.A., Fadeev V.V., Gerdova I.V., Dolenko S.A., Reuter R. Fluorescence diagnostics of oil pollution in coastal marine waters by use of artificial neural network // Applied Optics, 2002, Vol. 41, No. 24, pp. 5155-5166. 21. Gurevitch I. Ya., Shifrin K.S. Otrazhenie vidimogo i IK izlucheniia neftianymi plenkami na more. Opticheskie metody izucheniia okeanov i vnutrennikh vodoemov [Reflection of Visible and Infrared Radiation by Oil Films in the Sea. Optical Methods of Study of Oceans and Inland Waters] // Nauka, Novosibirsk, 1979, pp. 166- 176. 22. Gardashov R.G., Gurevitch I. Ya., Shifrin K.S. Otrazhenie opticheskogo izlucheniia ot vzvolnovannoi morskoi poverkhnosti pokrytoi neftianoi plenkoi / Optika atmosfery i okeana [Reflection of Optical Radiation from Heaved Water Surface Covered with Oil Film / Optics of Atmosphere and Ocean] // ELM, Baku, 1983, pp. 33-44. 23. Cox C., Munk W. Slopes of the sea surface deduced from photographs of sun glitter // Scripps. Inst. Oceanography. Bull., 1956, Vol. 6, No. 9, pp. 401-488. 24. Tsai B.M., Gardner C.S. Remote sensing of sea state using laser altimeter // Appl. Opt., 1982, Vol. 21, No. 21, pp. 3932-3940. 25. Belov M.L., Gorodnichev V.A., Kozintsev V.I. Otsenka lazernykh lokatsionnykh kontrastov Уneftianaia plenka - chistaia morskaia poverkhnostФ na dline volny 10,6 mkm [Estimation of Laser Detection Contrasts between Oil Film and Clean Sea Surface with Wavelength of 10.6 µm] // Optika atmosfery i okeana, 1999, Vol. 12, No. 2, pp. 140-141. 26. Mayor S.D., Spuler S.M., Morley B.M. Scattering eye-safe depolarization lidar at 1.54 microns and potential usefulness in bioaerosol plume detection // Proc. SPIE, 2005, Vol. 5887, pp. 137-148. 27. GOST 31581-2012 Laser safety. General safety requirements for development and operation of laser products. 28. Ortenberg F. Ozone: Space Vision // ASRI Technion, Haifa, 2002, 100 p. 29. Zvyagintsev A.M. Prostranstvenno-vremennaia izmenchivost ozona v troposfere / Avtoref. dis. Еd-ra fiz.mat. nauk. [Spatial and Temporal Fluctuations of Ozone in Troposphere / Authors abstract of Doctor of Physical and Mathematical Sciences thesis], Moscow, 2013. URL: https://phys.msu.ru/upload/iblock/e12/2013-00-00-zvyagintsev.pdf. 30. Alperovich L.I., Komarova A.I., Narziev B.N., Pushkaryov V.N. Opticheskie postoiannye neftei v oblasti 0,25-25 mkm [Optical Constants of Oils within the Region of 0.25-25 µm] // ZhPS, 1978, Vol. 4, pp. 719-723.
Keywords
- remote optical method
- vision-safe radiation wavelengths
- UV region of spectrum
- oil contamination on water surface
- detection
Recommended articles
Multispectral Optical Reflectometry Method of Forest Resource Monitoring L&E, Vol.30, No.1, 2022
Selection and Justification of Optimal Spectral Wavelengths for Control of Methane Emission from an Advanced Nanosatellite L&E, Vol.31, No.5, 2023