Authors | A.V. Buketov1 , K. Dyadyura2 , Yu.M. Shulga3 , V.V. Sotsenko1 , L. Hrebenyk4 , O.V. Totosko5, I.M. Kulish6 |
Affiliations |
1Kherson State Maritime Academy, 73000 Kherson, Ukraine 2Odesa State Agrarian University, 65012 Odesa, Ukraine 3Danube Institute of the National University "Odesa Maritime Academy", 68607 Izmail, Ukraine 4Sumy State University, Medical Institute, 40022 Sumy, Ukraine 5Ternopil Ivan Puluj National Technical University, 46001 Ternopil, Ukraine 6Kherson National Technical University, 73008 Kherson, Ukraine |
Е-mail | tt.scaet@gmail.com |
Issue | Volume 17, Year 2025, Number 1 |
Dates | Received 01 December 2024; revised manuscript received 14 February 2025; published online 27 February 2025 |
Citation | A.V. Buketov, K. Dyadyura, et al., J. Nano- Electron. Phys. 17 No 1, 01020 (2025) |
DOI | https://doi.org/10.21272/jnep.17(1).01020 |
PACS Number(s) | 81.05.t, 81.05.Zx |
Keywords | Epoxy nanocomposites, Transport technologies, Coatings (10) , Service life, Reliability (8) , Molding technology, Environmental sustainability. |
Annotation |
This study investigates the fungal resistance and fungicidal properties of epoxy nanocomposites designed to improve waterborne transport systems' operational and repair characteristics. It has been shown that curing epoxy nanocomposites with the addition of nano- and micro-resins and discrete fibers is essential for significantly extending the service life of water transport systems. These modifications do not reduce the mechanical strength or corrosion resistance of the dry coatings. The research employs testing methods based on ISO 846:2019 to evaluate two key properties: fungal resistance and fungicidal activity. The fungal growth test revealed that modified epoxy composites with dispersed fillers and discrete fibres exhibit significant resistance to fungal growth. Specifically, composites with added modifiers and fibres show clear fungicidal effects, completely inhibiting fungal growth. In contrast, basic epoxy matrices and composites with fewer modifications show increased fungal proliferation. The importance of using eco-friendly materials in waterborne transport is emphasized. The study demonstrates the resistance of modified materials to the growth of aquatic fungi. An analysis of the fungicidal properties of the composites confirms their effectiveness in preventing fungal growth. Additionally, the study presents the development of an eco-friendly, corrosion-resistant epoxy composite. The material formulation includes epoxy resin (ED-20), polyethene polyamine (PEPA) hardener, ascorbic acid modifier, and specialized fillers. This composite, tested for both fungal resistance and mechanical properties, aims to enhance the durability and repairability of water transport structures. The preparation process and composition of this composite are detailed, providing a guide for potential applications in marine transport components. |
List of References |