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Content of issue 01, volume 38, 2025

1. The centenary of the birth of Vladimir Evseevich Zuev: contribution to science and heritage for future generations. P. 5–6

2. Tarasenkov M. V., Poznaharev E. S., Fedosov A. V., Kudryavtsev A. N., Belov V. V. Estimation of the capabilities of non-line-of-sight optical communications with UAVs through “water–atmosphere” interface. P. 7–14

Bibliographic reference:

Tarasenkov M. V., Poznaharev E. S., Fedosov A. V., Kudryavtsev A. N., Belov V. V. Estimation of the capabilities of non-line-of-sight optical communications with UAVs through “water–atmosphere” interface. // Optika Atmosfery i Okeana. 2025. V. 38. No. 01. P. 7–14. DOI: 10.15372/AOO20250101 [in Russian].

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Tarasenkov M.V., Poznakharev E.S., Fedosov A.V., Kudryavtsev A.N., Belov V.V. Capabilities of Non-line-of-sight Optical Communications with UAV through Water–Atmosphere Interface // Atmospheric and Oceanic Optics, 2025, V. 38. No. 03. pp. 221–227.

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3. Musikhin I. D., Kapustin V. V., Movchan A. K., Poznaharev E. S., Kuryachy M. I., Tislenko A. A., Zabuga S. A. Influence of inhomogeneous optical radiation propagation media on the accuracy of space depth mapping by multi-zone active-pulse television measuring systems. P. 15–23

Bibliographic reference:

Musikhin I. D., Kapustin V. V., Movchan A. K., Poznaharev E. S., Kuryachy M. I., Tislenko A. A., Zabuga S. A. Influence of inhomogeneous optical radiation propagation media on the accuracy of space depth mapping by multi-zone active-pulse television measuring systems. // Optika Atmosfery i Okeana. 2025. V. 38. No. 01. P. 15–23. DOI: 10.15372/AOO20250102 [in Russian].

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Musikhin I.D., Kapustin V.V., Movchan A., Poznakharev E.S., Kuryachy M.I., Tislenko A.A., Zabuga S.A. Influence of Inhomogeneous Optical Radiation Propagation Media on the Accuracy of Space Depth Mapping by Multizone Active-Pulse Television Measuring Systems // Atmospheric and Oceanic Optics, 2025, V. 38. No. 03. pp. 239–248.

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4. Yushkov V. P. The relation of density and temperature fluctuations to the kinetic energy of turbulence in the atmospheric boundary layer. P. 23–31

Bibliographic reference:

Yushkov V. P. The relation of density and temperature fluctuations to the kinetic energy of turbulence in the atmospheric boundary layer. // Optika Atmosfery i Okeana. 2025. V. 38. No. 01. P. 23–31. DOI: 10.15372/AOO20250103 [in Russian].

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Yushkov V.P. The Relation of Density and Temperature Fluctuations to the Kinetic Energy of Turbulence in the Atmospheric Boundary Layer // Atmospheric and Oceanic Optics, 2025, V. 38. No. 03. pp. 249–258.

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5. Gorchakov G. I., Karpov A. V., Gushchin R. A., Dazenko O. I., Semutnikova E. G. Black carbon, brown carbon, and selective smoke aerosol absorption during large-scale wildfires in Alaska in 2019 and Canada in 2023. P. 32–38

Bibliographic reference:

Gorchakov G. I., Karpov A. V., Gushchin R. A., Dazenko O. I., Semutnikova E. G. Black carbon, brown carbon, and selective smoke aerosol absorption during large-scale wildfires in Alaska in 2019 and Canada in 2023. // Optika Atmosfery i Okeana. 2025. V. 38. No. 01. P. 32–38. DOI: 10.15372/AOO20250104 [in Russian].

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Gorchakov G.I., Karpov A.V., Gushchin R.A., Datsenko O.I., Semoutnikova E.G. Black Carbon and Brown Carbon and Selective Smoke Aerosol Absorption during Massive Wildfires in Alaska in 2019 and Canada in 2023 // Atmospheric and Oceanic Optics, 2025, V. 38. No. 03. pp. 266–272.

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6. Belan B. D., Dudorova N. V., Kotelnikov S. N. Ground-level ozone as a factor of increase in community-acquired pneumonia rate in Moscow in warm seasons. P. 39–46

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Belan B. D., Dudorova N. V., Kotelnikov S. N. Ground-level ozone as a factor of increase in community-acquired pneumonia rate in Moscow in warm seasons. // Optika Atmosfery i Okeana. 2025. V. 38. No. 01. P. 39–46. DOI: 10.15372/AOO20250105 [in Russian].

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Belan B.D., Dudorova N.V., Kotel’nikov S.N. Ground-Level Ozone as a Factor of Increase in Community-Acquired Pneumonia Rate in Moscow in Warm Seasons // Atmospheric and Oceanic Optics, 2025, V. 38. No. 03. pp. 300–307.

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7. Kablukova E. G., Oshlakov V. G., Prigarin S. M. Simulation of polarized signal of laser navigation system by Monte Carlo method. P. 47–55

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Kablukova E. G., Oshlakov V. G., Prigarin S. M. Simulation of polarized signal of laser navigation system by Monte Carlo method. // Optika Atmosfery i Okeana. 2025. V. 38. No. 01. P. 47–55. DOI: 10.15372/AOO20250106 [in Russian].

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Kablukova E.G., Oshlakov V.G., Prigarin S.M. Monte Carlo Simulation of Polarized Signals of a Laser Navigation System // Atmospheric and Oceanic Optics, 2025, V. 38. No. 03. pp. 317–326.

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8. Korshunov V. A. Two-component optical model of stratospheric aerosol and its application to interpretation of lidar measurements. P. 56–63

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Korshunov V. A. Two-component optical model of stratospheric aerosol and its application to interpretation of lidar measurements. // Optika Atmosfery i Okeana. 2025. V. 38. No. 01. P. 56–63. DOI: 10.15372/AOO20250107 [in Russian].

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Korshunov V.A. Two-Component Optical Model of Stratospheric Aerosol and Its Application to Interpretation of Lidar Measurements // Atmospheric and Oceanic Optics, 2025, V. 38. No. 03. pp. 327–335.

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9. Marakasov D. A., Sukharev A. A., Tsvyk R. Sh. Laser transillumination study of supersonic jets. P. 64–71

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Marakasov D. A., Sukharev A. A., Tsvyk R. Sh. Laser transillumination study of supersonic jets. // Optika Atmosfery i Okeana. 2025. V. 38. No. 01. P. 64–71. DOI: 10.15372/AOO20250108 [in Russian].

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Marakasov D.A., Sukharev A.A., Tsvyk R.Sh. Laser Transillumination Study of Supersonic Jets // Atmospheric and Oceanic Optics, 2025, V. 38. No. 03. pp. 336–344.

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10. Romanovskii O. A., Yakovlev S. V., Sadovnikov S. A., Nevzorov A. A., Nevzorov A. V., Kharchenko O. V., Kravtsova N. S., Kistenev Yu. V. Ground-based stationary differential absorption lidars for monitoring greenhouse gases in the atmosphere. P. 72–84

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Romanovskii O. A., Yakovlev S. V., Sadovnikov S. A., Nevzorov A. A., Nevzorov A. V., Kharchenko O. V., Kravtsova N. S., Kistenev Yu. V. Ground-based stationary differential absorption lidars for monitoring greenhouse gases in the atmosphere. // Optika Atmosfery i Okeana. 2025. V. 38. No. 01. P. 72–84. DOI: 10.15372/AOO20250109 [in Russian].

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Romanovskii O.A., Yakovlev S.V., Sadovnikov S.A., Nevzorov A.A., Nevzorov A.V., Kharchenko O.V., Kravtsova N.S., Kistenev Yu.V. Ground-based Stationary Differential Absorption Lidars for Monitoring Greenhouse Gases in the Atmosphere // Atmospheric and Oceanic Optics, 2025, V. 38. No. 03. pp. 345–359.

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