Competition name: Competition for grant funding of young scientists under the "Zhas Galym" project for 2025-2027.

Project Manager: Bauyrzhan Maratuly, Master of Mechanical Engineering.

 

Identifiers:

  • Scopus ID автора: (59232448500),
  • ORCID (0000-0002-2506-2545).

Project Research Team

Full name Project position Identifiers (Scopus Author ID, Researcher ID, ORCID, if any) and links to related profiles

1.

Bauyrzhan Maratuly

Project Manager

Researcher ID ABE-2398-2022,
Scopus Author ID (59232448500),
ORCID (0000-0002-2506-2545).

2.

Bagdat N. Azamatov

Scientific Advisor

ORCID (0000000163815846),
Scopus Author ID (57194540543).

Project abstract

This project aims to develop innovative bactericidal nanocoatings for textile products, particularly for bed linens used in healthcare facilities in Kazakhstan. The project seeks to address the limited effectiveness of existing methods for combating bacterial contamination of textiles, which do not always provide long-term protection, especially after repeated washing. Moreover, some coating application technologies can degrade fabric properties such as breathability and comfort.

To achieve this goal, the project will employ an interdisciplinary approach, combining the expertise of specialists in materials science, nanotechnology, textile engineering, microbiology, and automation. The project will involve the analysis and adaptation of advanced technologies, including a comprehensive literature review, patent search, and comparative analysis of existing solutions. This will allow for the identification of the most promising nanomaterials and coating application methods.

Using magnetron sputtering methods, laboratory samples of textiles with nanocoatings will be fabricated based on the data obtained. To maximize effectiveness, the coating application parameters will be tested and optimized. Special attention will be paid to the multifactorial analysis of the influence of various application parameters on the properties of the final product.

It is expected that the project will result in the development of new high-performance bactericidal nanocoatings, optimized in terms of durability, safety, and long-term activity. This will allow for the creation of textiles with excellent bactericidal properties, capable of significantly reducing the growth of harmful microorganisms. A prototype of bactericidal textile will be created for real-world testing. This will be supported by recommendations for applying the nanocoatings to different textile types.

Objective: To research various methods and materials for creating durable, long-lasting antimicrobial coatings that are non-damaging to fabrics. The flexible structure of the project allows for the use of DC magnetron, high-frequency, reactive sputtering, and other coating deposition methods, as well as various antimicrobial agents such as metal nanoparticles and multi-element compounds.

Expected and achieved results of the project:

Year

The results obtained from the research.
Publications (with links to them) and patents; information for potential users

2025

A comparative analysis of the advantages and disadvantages of existing modern solutions in the field of nanocoating technologies will be conducted. This analysis will allow justifying the selection of main materials and methods for this research. Based on the results of the comparative analysis, the most effective approaches for developing nanocoatings for textiles that provide a reliable and long-term bactericidal effect will be identified. An interim scientific report summarizing the obtained results will be prepared.

2026

The structural integrity of the coatings, including their uniformity and adhesion to the substrate will be thoroughly investigated. Optimal conditions for the deposition of these coatings via magnetron sputtering will be determined using regression analysis and multivariate experimental design. These results, as well as an analysis of the antibacterial efficacy of the coatings, will be documented in the interim scientific report.

2027

Textile prototypes will be created using optimal nanocoating application processes identified during previous experiments. These fabrics will be carefully tested to ensure the uniform effect of bactericidal properties across different fabric types. A final scientific report will be prepared evaluating the research results, coating methods, and the effectiveness of the textiles.

Date of last changes:
02.06.2025