Investigation of Efficiency of Reflectometric Method of Oil Product Spill Detection in Near IR Range

Abstract

The purpose of this article is to investigate the effectiveness of a prospective reflectometric method for detecting oil product spills on the ground surface in the in near-IR spectral range was conducted, utilizing experimentally acquired reflection spectra as a basis. The results of mathematical simulation of efficiency of the reflectometric monitoring method by equipment with different spectral resolution for the ground surface with different elements of landscape are presented. The mathematical simulation used spectra of reflection of various types of soil contaminated with oil, diesel fuel and gasoline, and spectra of reflection of clean (uncontaminated oil products) of various types of sand, clay, clay loam, fresh conifer and deciduous vegetation, dry conifer and deciduous vegetation, moss, lichens, pastures, swamps. The best results for the detection of oil contamination on the ground surface are when narrow spectral bands near wavelengths of 1.73, 2.095, and 2.33 µm are used to calculate the hydrocarbon index. It is shown that in this case for the relative square mean noise value of 3 % the reflectometric oil pollution monitoring method can potentially provide a probability of correct detection of oil pollution ~ 0.92 and a probability of false alarms ~ 0.03

Please cite this article in English as:

Baryshnikov N.V., Nguyen Minh Bach, Belov M.L. Investigation of efficiency of reflectometric method of oil product spill detection in near IR range. Herald of the Bauman Moscow State Technical University, Series Instrument Engineering, 2025, no. 4 (153), pp. 4--17 (in Russ.). EDN: MMLCAN

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