doi: 10.52899/24141437_2026_03_345
UDK: 620.193.8:620.197.6:62-757.7:667.637.22
Principles for Selecting Antifouling Coatings and Assessing the Effectiveness of Biocides
Щукина Е. В.,
Сарачук М. Д.,
Сычева Т. И.,
Мельников Ю. А.,
Пантелеева Е. И.,
Шейка М. В.
Article language: русский
Citation Link: Щукина Е.В., Сарачук М.Д., Сычева Т.И., Мельников Ю.А., Пантелеева Е.И., Шейка М.В. Принципы выбора противообрастающих покрытий и оцен-
ка эффективности биоцидов // Труды Санкт-Петербургского государственного морского технического университета. 2026. Т. 5, № 3. С. 345–355.
DOI: 10.52899/24141437_2026_03_345 EDN: XVUIBC
Annotation
This article studies the causes of biofouling and methods to combat it. The problem under consideration is relevant
to the development and operation of marine structures (ship hulls, underwater vehicles). Fouling leads to increased corrosion
rates and degraded tactical and technical characteristics—an increase in mass, a decrease in speed, etc. The review examines
the process of fouling of structures during prolonged exposure to seawater and presents a brief chronology of the development
of antifouling coatings—from the earliest mentions to modern methods of combating biocenosis. The main types of antifouling
coatings currently in use are identified: diffusion, contact, self-polishing, and non-biocidal. The fundamental mechanism of their
operation is analyzed, and the criteria affecting the effectiveness of different coating types, as well as their advantages and
disadvantages, are determined. Specific brands of domestic and foreign coatings are listed, along with their characteristics and
operating conditions. Based on the analysis, the main areas of application for different types of antifouling coatings have been
identified, the key factors determining their selection have been indicated, as well as the requirements for modern antifouling
coatings being developed—a long service life (at least 5 years) and prolonged exposure to open air (at least 1 year).
Keywords: противообрастающее лакокрасочное покрытие,биообрастание,биоциды,судостроение
Bibliography
1. Marine fouling and its control. Transl. from English by Alexandrova EV,
Gurevich ES, Maksimova SV, Tasun NT; Ed. by Nikitin VN, Tarasov NI.
Moscow: Military Publishing House of the Ministry of Defence of the USSR;
1957. 504 p. (In Russ.)
2. Zvyagintsev AYu. Study of marine fouling at the Institute of Marine
Biology of the Far Eastern Branch of the Russian Academy of Sciences
(1968–2006). Vestnik of the Far Eastern Branch of the Russian Academy
of Sciences. 2007;(4):3–16. EDN: JSIIXN
3. Iskra EV. Paint and coating materials in shipbuilding: a reference book.
Leningrad: Sudostroenie; 1984. 368 p. (In Russ.)
4. Lebedev MP, Startsev OV, Kychkin AK. Theoretical and applied
problems of Arctic materials science. In: Climate2025: modern approaches
to assessing the impact of external factors on materials and complex
technical systems: proceedings of the X AllRussian Scientific and Technical
Conference. Moscow: National Research Center Kurchatov Institute—VIAM;
2025. P. 18–26. (In Russ.)
5. Kochina TA, Kondratenko YuA, Shilova OA, Vlasov DYu.
Biocorrosion, biofouling, and advanced methods of controlling them.
Surface Physics and Protection of Materials. 2022;58(1):86–112.
doi: 10.31857/S0044185622010120 EDN: VRBHTF
6. Donelly B, Sammut K, Tang Y. Materials selection for antifouling
systems in marine structures. Molecules. 2022;27(11):3408.
doi: 10.3390/molecules27113408 EDN: KGJLIY
7. Drinberg AS, Garabadzhiu AV, Ioffe EL, et al. Marine coatings for the
Russian shipbuilding industry. Moscow: PaintMedia; 2021. 132 p. (In Russ.)
ISBN: 978-5-902904-16-8
8. Drinberg AS, Kalinskaya TV, Udenko IA. Technology of ship coatings.
Moscow: LKMpress; 2016. 672 p. (In Russ.) ISBN: 978-5-906271-04-4
9. Gurevich ES, Rukhadze AM, Frost AM, et al. Protection against fouling.
Moscow: Nauka; 1989. 271 p. (In Russ.) ISBN: 5-02-005280-9
10. Redko GI, Babich NA. Ship timber for the glory of the Russian fleet.
Arkhangelsk: NorthWest Book Publishing House; 1993. 151 p. (In Russ.)
ISBN: 5-85560-296-6
11. Derry T, Williams T. A brief history of technology. Ideas, processes
and devices by which man changes the environment from ancient times
to the present day. Transl. from English by Ilyina AA. Moscow: Tsentrpoligraf;
2023. 831 p. (In Russ.) ISBN: 978-5-9524-6025-6
12. Mondfeld V. Building ship models. Galleys. From the Middle Ages
to the Modern Age. Transl. by Cheban A. Saint Petersburg: Poligon; 2002.
110 p. (In Russ.) ISBN: 5-89173-142-8
13. Kolesnikov AG, Yakovlev RA, Maltsev AA. Technological equipment
of rolling production: a textbook. Moscow: Bauman Moscow State Technical
University Press; 2014. 158 p. (In Russ.) ISBN: 978-5-7038-4004-7
EDN: ZCKZIT
14. Iskra E. Fouling of the ship’s bottom: disease and treatment. Boats and
Yachts. Leningrad: Sudostroenie; 1988;(2(132)):80–83. (In Russ.)
15. Kalinina IN, Golovanova MV, Sheika MV. Marine fouling: impact
on underwater objects and methods of control. Underwater Weapons.
2012;(20):188–202. (In Russ.)
16. Academy of Sciences of the USSR, Zoological Institute, Scientific Council
on Biodeterioration. Study of marine biofouling processes and development
of its control. Collection of articles. Leningrad: ZIN AS USSR; 1987. 129 p.
(In Russ.)
17. Anisimov AV, Mikhailova MA, Uvarova EA. Modern approaches
to the development of marine antifouling coatings. Materials Science
Issues. 2018;(2(94)):70–80. doi: 10.22349/1994-6716-2018-94-2-70-80
EDN: XROCTR
18. Uvarova EA. Development of a biocidal-free low-surface-energy paint
coating based on an epoxy film-former for ship antifouling protection
[dissertation]. Saint Petersburg; 2023. 156 p. (In Russ.)
19. Skorokhodova ON, Kazakova EE, Itsko EF, et al. Main directions
of development of new generation antifouling coatings. Paint and Varnish
Industry. 2009;(12):18–20. (In Russ.)
20. Krotova O. Antifouling coatings for riversea vessels: expansion
of the product line from compositions for unlimited navigation area to
costeffective solutions for inland waterways of Russia. Protective Coatings.
2026;(2):22–28. EDN: JMDPSC
21. Mironova GA, Ildarkhanova FI, Kopteva VV, Bogoslovsky KG. Ways
to improve anticorrosion antifouling coatings. Paint and Varnish Materials
and Their Application. 2010;(12):84–86. EDN: TXZPQV
22. Mironova GA, Ildarkhanova FI, Kopteva VV, Bogoslovsky
KG. Rising of hydrophobity of anticorrosive-antifouling coatings.
Paint and Varnish Materials and Their Application. 2010;(7):26–29.
EDN: TWMAFL
23. Karpov VA, Kovalchuk YuL, Poltarukha OP, Ilyin IN. An integrated
approach to protection against marine fouling and corrosion. Moscow:
KMK Scientific Publications Association; 2007. 156 p. (In Russ.)
ISBN: 978-5-87317-402-7 EDN: QKQNGX
24. Karzina EI, Gaydym MA, Agapov KA, et al. Anti-corrosion
technologies: development and application of innovative coatings
for marine structures. Proceedings of SMTU. 2026;5(1):95–104.
doi: 10.52899/24141437_2026_01_95 EDN: DGQKZT
25. Gaydym MA, Karzina EI, Gribankova AA, Trusov VI. Biocide of
antifouling coatings for ships. Proceedings of SMTU. 2024;(4(12)):44–52.
EDN: RSOILE
26. Karpov VA, Drinberg AS, Lebedeva EA, et al. New-generation
long-life antifouling enamel based on domestic raw materials.
Paint and Varnish Materials and Their Application. 2026;(3):24–28.
EDN: BOHUMG
27. Podlesnaya GV, Masich PYu, Volkov AG, Badmaev MA. Study of the
biofouling process of paint and polymer coatings under natural conditions
of the Barents Sea water area. In: Climate2023: modern approaches
to assessing the impact of external factors on materials and complex
technical systems: proceedings of the VIII AllRussian Scientific and Technical
Conference. Moscow: National Research Center Kurchatov Institute—VIAM;
2023. P. 173–185. (In Russ.)
28. Varchenko EA, Medvedev IM. Marine testing of hydroacoustic
materials and marine testing experience at G.V. Akimov Gelendzhik
climatic testing centre. In: Applied Technologies of Hydroacoustics
and Hydrophysics: proceedings of the AllRussian Conference. Saint
Petersburg: POLYTECHPRESS; 2024. P. 418–421. ISBN: 978-5-7422-8585-4
EDN: EQTXRV
29. Smirnova LL. Testing of shipbuilding materials at various depths of
the black sea: technical equipment, control of the deep water environment
parameters, prospects for development (review). Environmental Control
Systems. 2020;(2(40)):54–61. doi: 10.33075/2220-5861-2020-2-54-61
EDN: UCVAKW
30. Agapov KA, Tuan ChV, Trusov VI, et al. Biocidal zinc coatings:
development and performance for marine structure protection. Proceedings
of SMTU. 2025;4(4):503–511. doi: 10.52899/24141437_2025_04_503
EDN: CFJBRK
31. Drinberg AS, Sychev MM, Okhrimenko AG, et al. Bionic
antifouling is a new technology for creating marine coatings. Paint
and Varnish Materials and Their Application. 2021;(78):34–40.
EDN: AYNXCD
32. Zhuravleva OA, Voeykova TA, Vlasova AYu, et al. Study of new biocidal
complexes for marine antifouling coatings. Russian Nanotechnologies.
2024;19(4):475–482. (In Russ.) doi: 10.56304/S1992722323601192
EDN: QAXFRF
33. Kharchenko UV, Egorkin VS, Vyalyi IE, et al. Antifouling coatings
on the base of bioinspired technologies for marine applications. Bulletin of the
Far Eastern Branch of the Russian Academy of Sciences. 2024;(6):56–72.
doi: 10.31857/S0869769824060059 EDN: HSUQAW