Dmitry Ignatenko

Mr. Dmitry Ignatenko


Research Focus & Metrics

Academic Career Length

6Years (2021-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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23 May 2022 in Applied Sciences
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Journal Article
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DIDmitry Ignatenko
Dmitry Ignatenko
ASAlexey V. Shkirin
Alexey V. Shkirin
JLJacob Lobachevsky
Jacob Lobachevsky
Sergey V. GudkovSergey V. Gudkov
Sergey V. Gudkov
The review contains a systematization of the main approaches to the practical implementation of Mueller matrix polarimetry and the prospects for its application in biology and agriculture. The most typical optical layouts for measuring the Mueller matrix of various objects, such as disperse systems, tissues and surface structures, are discussed. Mueller matrix measurements, being integrated into standard schemes of conventional optical methods, such as scatterometry, optical coherence tomography, fluorimetry, spectrophotometry and reflectometry, can significantly expand their capabilities in the characterization of biological systems and bioorganic materials. Additionally, microwave Mueller matrix polarimetry can be used for monitoring soil conditions and crop growth. The proposed systematization is aimed at outlining the conceptual directions for the development of non-invasive diagnostic tools based on measuring the Mueller matrix, primarily with a focus on biological research and agricultural practice.

3 December 2021 in Photonics
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DBDmitriy Burmistrov
Dmitriy Burmistrov
DPDmitrii Pavkin
Dmitrii Pavkin
AKArtem R. Khakimov
Artem R. Khakimov
DIDmitry Ignatenko
Dmitry Ignatenko
Evgeniy Alexandrovich NikitinEvgeniy Alexandrovich Nikitin
Evgeniy Alexandrovich Nikitin
Andrei ZvyaginAndrei Zvyagin
Andrei Zvyagin
Sustainable development of the agricultural industry, in particular, the production of milk and feed for farm animals, requires accurate, fast, and non-invasive diagnostic tools. Currently, there is a rapid development of a number of analytical methods and approaches that meet these requirements. Infrared spectrometry in the near and mid-IR range is especially widespread. Progress has been made not only in the physical methods of carrying out measurements, but significant advances have also been achieved in the development of mathematical processing of the received signals. This review is devoted to the comparison of modern methods and devices used to control the quality of milk and feed for farm animals.

20 October 2021 in Agriculture
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ASAlexey V. Shkirin
Alexey V. Shkirin
DIDmitry Ignatenko
Dmitry Ignatenko
SCSergey Chirikov
Sergey Chirikov
Nikolai BunkinNikolai Bunkin
Nikolai Bunkin
MAMaksim Astashev
Maksim Astashev
Sergey V. GudkovSergey V. Gudkov
Sergey V. Gudkov
Monitoring the composition of milk products is an important factor in the management of dairy farms and industry. Information on the quantitative content of milk components is necessary to control milk quality, as well as to optimize dairy cow nutrition and diagnose their clinical condition. The content of fat and protein is considered the main criterion for determining the market value of milk. Increasing the efficiency of dairy production requires the use of inexpensive and compact devices that are capable of performing multicomponent analysis of milk both directly on the farm and in technological lines. We investigated the possibility of fast simultaneous determination of fat and protein content in milk by laser polarimetric scatterometry. The block-diagonal elements of the scattering matrix were measured for a series of commercially produced milk samples with the indicated fat percentage, which were diluted by volume with water. From the measured scattering matrices, the size distributions of fat droplets and casein aggregates were reconstructed. Using the size histograms, the content of fat and protein and protein-to-fat ratio in the studied milk samples are estimated.

10 December 2025 in Russian Journal of General Chemistry
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Sergey V. GudkovSergey V. Gudkov
Sergey V. Gudkov
AAA. V. Antipov
A. V. Antipov
MAMaksim Astashev
Maksim Astashev
VBV. L. Baybursky
V. L. Baybursky
IBI. V. Baimler
I. V. Baimler
OSOleg Sinyashin
Oleg Sinyashin
The manuscript discusses non-standard scientific and technological solutions for environmental monitoring, neutralization and subsequent deep processing of industrial and municipal waste. The manuscript is divided into three major sections devoted to monitoring, detoxification and processing of environmental pollutants. The following non-standard technological solutions for environmental monitoring are considered: Laser express chemical analysis; Laser remote sensing; Chemoresistive gas sensors for monitoring atmospheric conditions; Multi-beam optical analyzer for detection of microorganisms and organic pollutants. For neutralization of environmental pollutants, the following are considered: Modern catalysts for air purification from nitrogen and sulfur oxides; Adsorbents for carbon dioxide absorption; Advanced oxidation processes for purification of airport stormwater runoff; Advanced low-temperature plasma technologies; Catalysts for combustion of sewage sludge from municipal treatment facilities; Modern composite multifunctional polymer materials. Among technological solutions for deep processing of industrial and municipal waste, the following are considered: Nickel pincer complexes as electrocatalysts for molecular hydrogen evolution; Hydrogen sulfide-methane reforming for molecular hydrogen production; Technology of catalytic conversion of lignin-containing waste into adsorbents and fuel; New bacterial consortia for sewage sludge processing.

7 December 2022 in Applied Sciences
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ASAlexey V. Shkirin
Alexey V. Shkirin
MAMaksim Astashev
Maksim Astashev
DIDmitry Ignatenko
Dmitry Ignatenko
NSNikolay Suyazov
Nikolay Suyazov
MVMaria V. Vedunova
Maria V. Vedunova
Sergey V. GudkovSergey V. Gudkov
Sergey V. Gudkov
A compact laser scatterometric device for determining the fat percentage of milk filling a cylindrical tube has been designed. The device operates by detecting the angular distribution of the scattered radiation of a semiconductor laser using an axial array of photodiodes. We have experimentally found that the light-scattering indicatrix in cow milk has a monotonous dependence on milk fat content. The intensity at side- or forward-scattering angles normalized to the backscattering intensity proves to be a reliable, informative parameter. A polynomial approximation for the calibration curve of fat percentage versus normalized scattering intensity is constructed to enable fat content measurements in the fairly wide range of ~0.01–10%. Furthermore, the intensity at forward scattering angles responds to the presence of large-scale particles in milk. The device was tested in a laminar flow regime at milk flow rates up to 100 mL/s.

14 September 2021 in Photonics
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VKVladimir V. Kirsanov
Vladimir V. Kirsanov
ASAlexey V. Shkirin
Alexey V. Shkirin
DPDmitrii Pavkin
Dmitrii Pavkin
DIDmitry Ignatenko
Dmitry Ignatenko
GDGeorgy L. Danielyan
Georgy L. Danielyan
Nikolai BunkinNikolai Bunkin
Nikolai Bunkin
Automation of milking systems is linked to accurate measurement of fluctuations in milk flow during milking. To assess the fluctuations of the milk flow, the formation and movement of milk portions in the milking machine-milk pipeline system was studied. By considering the movement of a milk plug along the milk pipeline, a hydraulic model of the formation of a critical volume of milk in the milking machine manifold was compiled. In practice, the most expedient way of determining milk flow parameters may be to measure the laser fluorescent and extinction responses of moving air-milk mixture. We have implemented a new laser sensing method for measuring the flow rate and composition of milk on the basis of counting the optical response pulses received from moving dispersed components by a CCD array or a randomized fiber optic bundle. Using the developed laser sensors, the theoretical model of milk flow was tested.