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An optical system for remote sensing in the UV, visible, and NIR spectral ranges

V.M. Vladimirov 1,2, V.A. Yukseev 3, E.G. Lapukhin  4

1 Krasnoyarsk Science Centre of the Siberian Branch of Russian Akademy of Science,

2 Research-and-production company «Electron»,

3 Academician M. F. Reshetnev Information Satellite Systems,

4 Reshetnev Siberian State University of Science and Technology

 PDF, 1198 kB

DOI: 10.18287/2412-6179-CO-611

Pages: 195-202.

Full text of article: Russian language.

Abstract:
In this work, we propose a high-resolution optical system for Earth remote sensing, operating at 200-3300-nm wavelengths and providing a 4º field of view. Parameters of the system's structural elements are calculated and presented. Dot charts of the spots of confusion for the center, intermediate zones, and the edge of the field are considered. Over most of the operating wavelengths, the optical system is shown to be diffraction-limited,  which provides attaining the highest possible spatial resolution. This system is considered as a tool for monitoring of the Earth's surface and collection of information in the ultra-violet, visible and near infrared spectral ranges (200-3300 nanometers).

Keywords:
optical system, Ritchey-Chretien system with a two-lens corrector, monitoring, resolution.

Citation:
Vladimirov VM, Yukseev VA, Lapukhin EG. An optical system for remote sensing in the UV, visible and NIR spectral ranges. Computer Optics 2020; 44(2): 195-202. DOI: 10.18287/2412-6179-CO-611.

References:
  1. Vallado DA. Fundamentals of astrodynamics and applications. 4th ed. Microcosm Press; 2013. ISBN: 978-1-881883-18-0.
  2. The NOAA KLM User's Guide. Source: <https://www1.ncdc.noaa.gov/pub/data/satellite/publications/podguides/N-15%20thru%20N-19/pdf/0.0%20NOAA%20KLM%20Users%20Guide.pdf>.
  3. Gorbunov AV, Ilina IYu, Saulsky VK. State and perspectives of space complexes “Kanopus-V” and “Meteor-M” development [In Russian]. Raketno-Kosmicheskoe Priborostroenie i Informatsionnye Sistemy 2015; 2(4): 14-19.
  4. Ryadnov AY, Gulin YY, Frolov AG, Badaev KV, Tihonov SA. Application of the 288×4 matrix photoelectronic module in the IR-radiometer MSD-IR-MRM as part of satellite «Kanopus-V-IR» [In Russian]. XXV Mezhdunarodnaya Nauchno-Tekhnicheskaya Konferentsiya i Shkola po Fotoelektronike i Priboram Nochnogo Videniya: Conference Proceedings 2018: 158-161.
  5. Vladimirov VM, Granitskiy LV, Lapukhin EG. Possibilities of remote sensing of the Northern sea route with use of geosynchronous orbits [In Russian]. Uspekhi Sovremennoy Radioelektroniki 2015; 10: 123-126.
  6. Vladimirov VM, Yukseev VA, Lapukhin EG. Synchronous monitoring of the Arctic and Antarctic in optical and radio ranges [In Russian]. Radioteleskopy, Apparatura i Metody Radioastronomii: Conf "Radio Telescopes, Equipment and Methods of Radio Astronomy". Saint-Peterburg: "IPA RAN" Publisher; 2018: 19.
  7. Mikhel'son NN. Astronomical telescopes and calculation methods [In Russian]. Moscow: "Fizmatlit" Publisher; 1995.
  8. Popov GM. The modern astronomical optics [In Russian]. Moskow: "Nauka" Publisher; 1988.
  9. Popov GM. Richie-Chrétien's system with the aspherical meniscal corrector [In Russian]. Izvestiya KRAO 1986; 74: 161-170.
  10. Material a fused silica of KI [In Russian]. Source: <http://www.elektrosteklo.ru/FS_rus.htm>.
  11. Polycrystalline glass SO115M [In Russian]. Source: <http://lzos.ru/content/view/18/37/>.
  12. Mikhailenko SN, Babikov YuL, Golovko VF. Information-calculating system Spectroscopy of Atmospheric Gases. The structure and main functions. Atmospheric and oceanic optics 2005; 18(09): 685-695.
  13. Spectroscopy of atmospheric gases [In Russian]. Source: <http://spectra.iao.ru/home.overview>.
  14. Vladimirov VM, Yukseev VA, Lapukhin EG. Evolution of a geosynchronous retrograde orbit for monitoring of the Northeast Passage and Antarctic region [In Russian]. Materials XXII Int Sci Conf “Reshetnev reading”. Krasnoyarsk: 2018; 1: 518-519.

 

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