115

The study of the spectral properties of minerals and rocks by remote sensing methods are based on mineralogical and petrographic studies. The article presents the results of calculation of mineral indices using ASTER (Advanced Space Thermal Emission and Reflection Radiometer) satellite images of the central part of the North Nurata Mountains. Pre-processing of the space image, including geometric and radiometric correction was carried out with the ENVI 5.3 program. Mineral indicators of ore minerals, such as iron oxides, carbonate, silicate and siliceous minerals were identified based on mathematical operations of ASTER space imagery channels. The mineral index results provided accurate spectral information on mineral indicator minerals and lithologic mapping while showing the spatial distribution of these materials. The areoles of the identified mineral groups mostly coincide with mineralized zones on the various ore minerals. The results can be used to create and update mineral distribution maps to predict new areas of mineral accumulations

  • Web Address
  • DOI
  • Date of creation in the UzSCI system 05-11-2022
  • Read count 115
  • Date of publication 30-09-2022
  • Main LanguageIngliz
  • Pages98-104
English

The study of the spectral properties of minerals and rocks by remote sensing methods are based on mineralogical and petrographic studies. The article presents the results of calculation of mineral indices using ASTER (Advanced Space Thermal Emission and Reflection Radiometer) satellite images of the central part of the North Nurata Mountains. Pre-processing of the space image, including geometric and radiometric correction was carried out with the ENVI 5.3 program. Mineral indicators of ore minerals, such as iron oxides, carbonate, silicate and siliceous minerals were identified based on mathematical operations of ASTER space imagery channels. The mineral index results provided accurate spectral information on mineral indicator minerals and lithologic mapping while showing the spatial distribution of these materials. The areoles of the identified mineral groups mostly coincide with mineralized zones on the various ore minerals. The results can be used to create and update mineral distribution maps to predict new areas of mineral accumulations

Author name position Name of organisation
1 Almordonov A.R. researcher TSTU
2 ASADOV A.R. teacher University of geological sciences
Name of reference
1 A.R. Asadov., A.R. Almordonov. Spectral analysis of the Landsat 8 image of the Nurata mountains by the PСA method. “International journal of geology, earth environmental sciences”, 2021. 227.
2 A.R.Asadov., A.R.Almordonov., S.A.Rabbimkulov., A.I.Tangirov. Identification of intrusive massifs in the Nurata mineralized zones based on satellite images. “Technical science and innovation”, 2022. 78.
3 A.R. Asadov., Sh. Ochilov. Calculation of mineral indices using ASTER satellite image on channel combination (by the example of the Molguzar mountains). “Education and science in the XXI century”, 2022.761
4 A.A. Kirsanov. A new method for identifying near-ore hydrothermally altered rocks using space hyperspectral data, using the example of the Lomamsky potentially gold-mining region, the Republic of Sakha (Yakutia). “Regional geology and metallogeny”, 2021. 97.
5 A. Kanlinowski., S. Oliver. “ASTER mineral index processing, remote sensing application, geo-science australia, internal report”, 2004. 39.
6 Y. Zhang., F. Yao. Interpreting the Shortwave Infrared & Thermal Infrared Regions of Remote Sensed Electromagnetic Spectrum with Application for Mineral-Deposits Exploration. “Journal of applied mathematics and physics”, 2015. 254.
7 F. Feizi., E. Mansuri. "Separation of Alteration Zones on ASTER Data and Integration with Drainage Geochemical Maps in Soltanieh, Northern Iran. “Open Journal of Geology”, 2013. 134.
8 V. Henrich., A. Jung., C. Götze., C. Sandow., D. Thürkow., C. Gläßer. Development of an online indices database: Motivation, concept and implementation. 6th Easel Imaging Spectroscopy SIG Workshop Innovative “Tool for scientific and commercial environment applications Tel Aviv”, 2009.16.
9 V. Henrich. IDB - Index-Database; Development of a database for remote sensing indices. “ZFL-Colloquium, Bonn”, 2012.
10 . X. Jin., S. Paswaters., H. Cline. "A comparative study of target detection algorithms for hyperspectral imagery," In Algorithms and Technologies for Multispectral, Hyperspectral and Ultra Spectral Imagery XV. “Proceedings of SPIE”, 2014. 7334
11 C.I. Chang., J.M. Liu., B.C. Chieu., C.M. Wang., C.S. Lo., P.C. Chung., H. Ren., C.W. Yang., D.J. Ma. “A generalized constrained energy minimization approach to subpixel target detection for multispectral imagery. “Optical Engineering”, 2000.1275.
12 H. Ren., C.I Chang. “Target-constrained interference-minimized approach to subpixel target detection for hyperspectral imagery. “Optical Engineering”, 2000. 3138.
13 S. Johnson. “Constrained energy minimization and the target-constrained interferenceminimized filter. “Optical Engineering”, 2003. 1850
14 S. Kraut., L.L. Scharf., R.W. Butler. “The adaptive coherence estimator: a uniformly mostpowerful-invariant adaptive detection statistic. “IEEE Trans. on Signal Processing”, 2005. 427
15 D. Manolakis., D. Marden., G.A. Shaw. Hyperspectral image processing for automatic target detection applications. “Lincoln Laboratory Journal”, 2003. 79.
Waiting