Dr. Anatoly I. Grishin Profile

Dr. Anatoly I. Grishin

at Atmospere Optics Institute SB RAS

SPIE Involvement:

Author

Publications (33)

Proceedings Article | 8 December 2022 Paper

Paper

Possibilities of using electro-optical modulators in Doppler wind lidar

A. Grishin, A. Kryuchkov

Proceedings Volume 12341, 1234133 (2022) https://doi.org/10.1117/12.2644893

KEYWORDS: Modulators, Doppler effect, Electro optics, Electrooptic modulators, LIDAR, Modulation, Bragg cells, Signal detection, Aerosols, Radiofrequency generators

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Proceedings Article | 12 November 2020 Paper

Paper

Imaging of backscattered pulsed laser radiation with a SPAD camera

A. Grishin, A. Kryuchkov, A. Lisenko, G. Matvienko, V. Shamanaev

Proceedings Volume 11560, 1156045 (2020) https://doi.org/10.1117/12.2575498

KEYWORDS: Cameras, Imaging systems, LIDAR, Pulsed laser operation, Photodetectors, Signal detection, Sensors, Photon counting, Analog electronics, Camera shutters

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Proceedings Article | 13 December 2018 Paper

Paper

Doppler fiber lidar wind speed measurement

A. Grishin, A. Kryuchkov, S. Yakovlev

Proceedings Volume 10833, 1083369 (2018) https://doi.org/10.1117/12.2504643

KEYWORDS: LIDAR, Doppler effect, Wind measurement, Fiber amplifiers, Fiber lasers, Fiber optics, Atmospheric monitoring, Velocity measurements, Optical amplifiers, Bragg cells

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Proceedings Article | 13 December 2018 Paper

Paper

On the transformation of images of cloud field elements when observing them in the topocentric observer coordinate system

V. Galileiskii, A. Grishin, A. Elizarov, D. Kokarev, A. Morozov

Proceedings Volume 10833, 1083315 (2018) https://doi.org/10.1117/12.2503526

KEYWORDS: Clouds, Atmospheric optics, Atmospheric physics, Motion estimation

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Proceedings Article | 13 December 2018 Paper

Paper

Methods of determining the height of the lower border of clouds from the lidar signal

A. Grishin, A. Kryuchkov, G. Matvienko

Proceedings Volume 10833, 1083367 (2018) https://doi.org/10.1117/12.2504641

KEYWORDS: Clouds, LIDAR, Signal detection, Visibility, Atmospheric optics, Atmospheric sensing, Backscatter, Meteorology, Atmospheric particles, Signal attenuation

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Proceedings Article | 29 November 2016 Paper

Paper

Portable meter calibration meteorological visibility range

A. Grishin, A. Kryuchkov

Proceedings Volume 10035, 100354Q (2016) https://doi.org/10.1117/12.2249364

KEYWORDS: Calibration, Meteorology, Visibility, Scattering, Photodetectors, Receivers, Light scattering, Signal attenuation, Wavelength division multiplexing, Reflectivity

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Proceedings Article | 29 November 2016 Paper

Paper

Possibility of heating safety glasses in optoelectronic devices

A. Grishin, A. Kryuchkov

Proceedings Volume 10035, 100354N (2016) https://doi.org/10.1117/12.2249371

KEYWORDS: Safety glasses, Optoelectronic devices, Glasses, Cameras, Coating, Manufacturing, Optical components, Resistors, Atmospheric optics

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Proceedings Article | 29 November 2016 Paper

Paper

Possible to reduce the influence of the background in the measurement of atmospheric transparency nephelometry

A. Grishin, A. Kryuchkov

Proceedings Volume 10035, 100354O (2016) https://doi.org/10.1117/12.2249372

KEYWORDS: Transparency, Electronic filtering, Optical filters, Interference (communication), Modulation, Receivers, Filtering (signal processing), Signal detection, Signal to noise ratio, Atmospheric optics

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Proceedings Article | 29 November 2016 Paper

Paper

Imitation of several layers of clouds to calibrate ceilometer

A. Grishin, A. Kryuchkov, G. Matvienko

Proceedings Volume 10035, 100354P (2016) https://doi.org/10.1117/12.2249365

KEYWORDS: Clouds, Calibration, Fiber optics, Collimators, Optical fibers, LIDAR, Refractive index, Attenuators, Atmospheric optics, Semiconductor lasers

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Proceedings Article | 29 November 2016 Paper

Paper

Pulsed light source for nephelometric with optimized parameters in the scattering volume

A. Grishin, A. Kryuchkov, I. Razenkov

Proceedings Volume 10035, 100354M (2016) https://doi.org/10.1117/12.2249370

KEYWORDS: Light sources, Light scattering, Scattering, Calibration, Collimators, Receivers, Light emitting diodes, Atmospheric optics, Spherical lenses, Optics manufacturing

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Proceedings Article | 19 November 2015 Paper

Paper

Calibration compact meteorological visibility sensor

A. Kryuchkov, A. Grishin

Proceedings Volume 9680, 968051 (2015) https://doi.org/10.1117/12.2205995

KEYWORDS: Calibration, Scattering, Light scattering, Visibility, Receivers, Reflection, Environmental sensing, Meteorology, Sensors, Standards development

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Proceedings Article | 19 November 2015 Paper

Paper

Optimization parameters of ceilometer

A. Kryuchkov, A. Grishin

Proceedings Volume 9680, 968052 (2015) https://doi.org/10.1117/12.2205996

KEYWORDS: Clouds, Semiconductor lasers, Pulsed laser operation, Capacitors, Avalanche photodiodes, Microcontrollers, Optical amplifiers, Sensors, Oscillators, LIDAR

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Proceedings Article | 19 November 2015 Paper

Paper

Calibration and verification portable ceilometer

A. Kryuchkov, A. Grishin

Proceedings Volume 9680, 96804V (2015) https://doi.org/10.1117/12.2205982

KEYWORDS: Calibration, Clouds, Collimators, Fiber optics, Semiconductor lasers, Receivers, Measurement devices, Transmitters, Atmospheric optics, Connectors

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Proceedings Article | 25 November 2014 Paper

Paper

Portable eye-safe ceilometers

A. Kryuchkov, A. Grishin, A. Gricuta

Proceedings Volume 9292, 92923A (2014) https://doi.org/10.1117/12.2075286

KEYWORDS: Clouds, Semiconductor lasers, Pulsed laser operation, Capacitors, Microcontrollers, Optical amplifiers, Sensors, Avalanche photodiodes, Oscillators, LIDAR

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Proceedings Article | 3 October 2006 Paper

Paper

Fluorescence lidar method for remote monitoring of effects on vegetation

Gennady Matvienko, Valery Timofeev, Anatoly Grishin, Natalia Fateyeva

Proceedings Volume 6367, 63670F (2006) https://doi.org/10.1117/12.689612

KEYWORDS: Luminescence, LIDAR, Vegetation, Photosynthesis, Laser induced fluorescence, Soil contamination, Pollution, Iron, Quantum efficiency, Visualization

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SPIE Journal Paper | 1 May 2006

Application of laser-induced fluorescence for remote sensing of vegetation

Gennadii Matvienko, Anatoly Grishin, Olga Kharchenko, Oleg Romanovskii

OE, Vol. 45, Issue 05, 056201, (May 2006) https://doi.org/10.1117/12.10.1117/1.2202366

KEYWORDS: Luminescence, LIDAR, Laser induced fluorescence, Vegetation, Calibration, Remote sensing, Pulsed laser operation, Optical engineering, Neodymium, Signal detection

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Proceedings Article | 1 November 2005 Paper

Paper

Fluorescent lidar for organic aerosol study

G. Matvienko, V. Timofeev, A. Grishin, N. Fateyeva

Proceedings Volume 5984, 59840B (2005) https://doi.org/10.1117/12.627784

KEYWORDS: Luminescence, LIDAR, Vegetation, Aerosols, Atmospheric particles, Atmospheric sensing, Absorption, Photosynthesis, Nd:YAG lasers, Atmospheric monitoring

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Proceedings Article | 12 May 2005 Paper

Paper

Possibility of a meteorological lidar for measurement of basic meteorological parameters of the atmosphere

Olga Kharchenko, Gennadii Matvienko, Anatolii Grishin, Oleg Romanovskii, Anatolii Matuchnov

Proceedings Volume 5832, (2005) https://doi.org/10.1117/12.619840

KEYWORDS: LIDAR, Meteorology, Humidity, Absorption, Temperature metrology, Wind measurement, Profiling, Velocity measurements, Atmospheric modeling, Atmospheric optics

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Proceedings Article | 28 February 2002 Paper

Paper

Chlorophyll content research using spectroscopic and laser-induced fluorescence techniques

Olga Kharchenko, Anatolii Grishin, Gennadii Matvienko, Oleg Romanovskii, Albina Zotikova, Nina Vorobyeva

Proceedings Volume 4678, (2002) https://doi.org/10.1117/12.458478

KEYWORDS: Luminescence, LIDAR, Laser induced fluorescence, Spectroscopy, Fluorescence spectroscopy, Laser spectroscopy, Analytical research, Calibration, Atmospheric optics, Ocean optics

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Proceedings Article | 31 January 2001 Paper

Paper

Space lidar "Tectonica-A" and ground-based testing

Gennadii Matvienko, Anatolii Grishin, Vladimir Alekseev

Proceedings Volume 4167, (2001) https://doi.org/10.1117/12.413836

KEYWORDS: Aerosols, LIDAR, Earthquakes, Atmospheric particles, Earth's atmosphere, Atmospheric sensing, Radon, Spatial resolution, Scattering, Atmospheric laser remote sensing

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Proceedings Article | 29 December 2000 Paper

Paper

Method of laser-induced fluorescence for investigation of the photosynthesis system of trees

Anatolii Grishin, Olga Kharchenko, Gennadii Matvienko, Oleg Romanovskii, Nina Vorob'eva, Albina Zotikova

Proceedings Volume 4341, (2000) https://doi.org/10.1117/12.412009

KEYWORDS: Luminescence, LIDAR, Photosynthesis, Laser induced fluorescence, Analytical research, Spectrophotometry, Atmospheric optics, Vegetation, Waveguides, Fluorescence spectroscopy

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Proceedings Article | 5 September 2000 Paper

Paper

Fluorescence lidar system for remote monitoring of the state of vegetative cover for the purpose of its prediction

Oleg Romanovskii, Gennadii Matvienko, Anatolii Grishin, Olga Kharchenko

Proceedings Volume 4035, (2000) https://doi.org/10.1117/12.397786

KEYWORDS: Luminescence, LIDAR, Analytical research, Spectrophotometry, Vegetation, Waveguides, Atmospheric optics, Fluorescence spectroscopy, Spectroscopy, Tissue optics

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Proceedings Article | 5 September 2000 Paper

Paper

Near-IR meteorological lidar MEL-01

Oleg Romanovskii, Gennadii Matvienko, Anatolii Grishin, Olga Kharchenko

Proceedings Volume 4035, (2000) https://doi.org/10.1117/12.397824

KEYWORDS: Absorption, LIDAR, Meteorology, Humidity, Temperature metrology, Atmospheric modeling, Oxygen, Atmospheric optics, Wind energy, Troposphere

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Proceedings Article | 15 December 1999 Paper

Paper

Simulation of the aerosol spaceborne lidar Tectonica-A

Gennadii Matvienko, Vladimir Alekseev, Anatolii Grishin, Grigorii Kokhanenko, Georgii Krekov, Margarita Krekova, Vitalii Shamanaev

Proceedings Volume 3865, (1999) https://doi.org/10.1117/12.373024

KEYWORDS: LIDAR, Aerosols, Atmospheric modeling, Atmospheric particles, Atmospheric sensing, Earth's atmosphere, Scattering, Multiple scattering, Sensors, Atmospheric physics

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Proceedings Article | 19 November 1999 Paper

Paper

Laser-induced fluorescence method in the problems of diagnostics of vegetative covers

Gennadii Matvienko, Anatolii Grishin, Olga Kharchenko, Oleg Romanovskii

Proceedings Volume 3983, (1999) https://doi.org/10.1117/12.370509

KEYWORDS: Luminescence, Quantum efficiency, LIDAR, Optical filters, Laser induced fluorescence, Tissues, Diagnostics, Scattering, Vegetation, Pulsed laser operation

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Proceedings Article | 28 May 1999 Paper

Paper

Remote sounding of vegetation characteristics by laser-induced fluorescence

Gennadii Matvienko, Anatolii Grishin, Olga Kharchenko, Oleg Romanovskii

Proceedings Volume 3707, (1999) https://doi.org/10.1117/12.351388

KEYWORDS: Luminescence, Quantum efficiency, LIDAR, Vegetation, Tissues, Absorption, Optical filters, Tissue optics, Scattering, Atmospheric optics

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Proceedings Article | 13 January 1999 Paper

Paper

Statistical analysis and prediction of aerosol vertical stratification in the atmospheric boundary layer from lidar sounding data

V. Komarov, Anatolii Grishin, A. Kreminskii, Gennadii Matvienko, Yu. Popov

Proceedings Volume 3583, (1999) https://doi.org/10.1117/12.337015

KEYWORDS: Aerosols, Atmospheric particles, Error analysis, Statistical analysis, LIDAR, Atmospheric modeling, Reconstruction algorithms, Statistical modeling, Silicon, Data modeling

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Proceedings Article | 13 January 1999 Paper

Paper

Interaction of optical radiation with particles of inversion layers of the atmosphere

V. Galileiskii, Anatolii Grishin, A. Morozov, V. Oshlakov, A. Petrov

Proceedings Volume 3583, (1999) https://doi.org/10.1117/12.337017

KEYWORDS: Atmospheric particles, Atmospheric optics, Scattering, Specular reflections, Crystals, Earth's atmosphere, Image processing, Environmental sensing, Light sources, Light scattering

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Proceedings Article | 30 December 1997 Paper

Paper

Elaboration of remote laser sounding method for chlorophyll content in vegetation

Gennadii Matvienko, Tatjana Astafurova, Anatolii Grishin, Olga Kharchenko, Vladimir Klimkin, Vladimir Sokovikov, Valerii Timofeev

Proceedings Volume 3222, (1997) https://doi.org/10.1117/12.298134

KEYWORDS: Luminescence, Quantum efficiency, Vegetation, LIDAR, Tissues, Absorption, Optical filters, Scattering, Atmospheric optics, Tissue optics

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Proceedings Article | 23 October 1997 Paper

Paper

Thermovision method for the investigation of initiation and spread of a surface forest fire

Anatolii Grishin, A. Dolgov, V. Zima, V. Reino, Ruvim Tsvyk

Proceedings Volume 3122, (1997) https://doi.org/10.1117/12.292704

KEYWORDS: Combustion, Wind energy, Thulium, Temperature metrology, Atmospheric particles, Error analysis, Aerodynamics, Signal processing, Samarium, Atmospheric optics

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Surface forest fires (SFF) is the most common natural type of the forest fire causing a great ecological and economic damage. Although quite a lot of experimental works have been devoted to an investigation of SFF, a problem of a dominating mechanism of transferring energy from the zone of reaction to a forest fuel has not been solved yet. Exact profiles of the combustion product concentrations in the fire front are not known, and limiting conditions of its spread have not been properly investigated. To detect forest fires passive optico- electronic systems located on space apparatus are coming into use. However, to estimate the efficiency of space techniques, identification methods, classification and prediction of the forest fire development it is necessary to know thermal flows in the assigned spectral intervals, attenuation of an irradiation by an atmosphere, by particles of smoke and crowns of the trees, efficient combustion areas depending on the type of the fire and some other characteristics. Besides, it is necessary to take into account that a combustion process of the forest fuels depends on their density, moisture content, initial temperature and humidity of the air as well, speed and direction of the wind, the angle of terrain relief slope. Investigation of SFF in the natural, large scale experiments is complicated because of the bad reproduction of the results and considerable dependence of the combustion parameters on external factors. In general this problem is solved by means of laboratory devices which allow to model partly the conditions of the surface forest fire initiation and spread. For example, in the works set-ups for physical modeling SFF in specialized aerodynamic pipes are described. However, this method has unavoidable drawback caused by the fact that a real process of the forest fuel combustion in an open space is modeled by a combustion of the forest fuel in a half-closed space where the experiments are made. Closeness of the space in specialized aerodynamic pipes results in a change of temperature and composition of the medium and influences velocity fields of the fire front as a result of the traction force change in the area of SFF. Hoover, experimental works on investigation of the fires in laboratory conditions continue, new laboratory set-ups being made allowing to exceed the range of investigating forest fuel combustion with more exact approximation to the real conditions. In contrast to the natural investigations laboratory experiments can be carried out all the year round with less material expenses.3122

Proceedings Article | 23 May 1997 Paper

Paper

Research of fluorescence of plants at excitation by YAG:Nd laser second harmonic radiation

Gennadii Matvienko, Anatolii Grishin, Olga Kharchenko, Valerii Timofeev

Proceedings Volume 3107, (1997) https://doi.org/10.1117/12.274736

KEYWORDS: Luminescence, LIDAR, Tissues, Optical filters, Analytical research, Signal detection, Laser scattering, Scattering, Pulsed laser operation, Quantization

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Proceedings Article | 27 December 1995 Paper

Paper

Specular reflection from atmospheric nonspherical particles

V. Galileiskii, Anatolii Grishin, A. Morozov, A. Kolevatov, V. Oshlakov, A. Petrov

Proceedings Volume 2578, (1995) https://doi.org/10.1117/12.228954

KEYWORDS: Atmospheric particles, Specular reflections, Atmospheric optics, Scattering, Earth's atmosphere, Crystals, Light sources, Light scattering, Laser scattering, Environmental sensing

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Proceedings Article | 20 September 1995 Paper

Paper

Correlation lidar measurements of meteorological characteristics in conditions of atmospheric condensation

Gennadii Matvienko, Anatolii Grishin, A. Zilberman

Proceedings Volume 2506, (1995) https://doi.org/10.1117/12.221071

KEYWORDS: LIDAR, Meteorology, Velocity measurements, Wind measurement, Atmospheric optics, Scattering, Spatial resolution, Data conversion, Particles, Clouds

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At a lidar sounding of atmosphere meteorological parameters, (wind velocity and direction profile) the precipitation more often is considered as a hindrance, which limits the distance and accuracy of the measurements and in some instances performs the impossible measurements. But in the course of investigations it has been found that in certain situations, the precipitation increase efficiency of lidar sounding. In this case the distance and accuracy of sounding are increased. Primarily this is true for precipitation, which has the intensity no more than 1.5 mm/h. Furthermore, the possibility of determinations of the microstucture and integral characteristics of precipitation area is existed. The investigations were performed using the correlation scanning three-path lidar with vertical scheme of sounding. In the course of measurements the spatial-temporal series reflected by precipitation optical signals were amassed. The handling of the lidar data was based on the correlation-spectral method. The study of the optical signals reflected from preciptiation showed that the increase of the wind velocity sounding efficiency is available by amplification of the signal fluctuation components. Limitations on the rain rate are caused by powerful rain. A maximum of the dropsize distribution function is displaced inside of the high quantities which are not carried by air flows and useful information for the estimation of wind velocity gives the raindrops with dimensions no more than 0.6 mm in diameter. As the lidar allows to make a vertical cut of the precipitation area, that it was seen the moving of forward and reverse fronts of the precipitation area at the spatial range of the optical signals. From a comparison of the front positions in different times the drop speed of the different rain group is determined. This allowed us to estimate the range size raindrops and raindrop size distribution function was determined. The knowledge of precipitation microstructure parameters allows obtained integral characteristics of precipitation area: rain rate (mm/h), watery (g/m³), raindrop concentration (1/m³).

Showing 5 of 33 publications

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