24 june 516

BR24992873 — Development of effective MXene-based nanoconposites to invent novel generation of the electric energy storage devices

BR24992873 — Development of effective MXene-based nanoconposites to invent novel generation of the electric energy storage devices

Goal of the work: The aim of the study is to synthesize nanostructured MAX-phase and MXene materials using various etching methods.

Relevance of the work: The results obtained make it possible to obtain a MAX-phase with a target phase content of more than 70% and single-layer MXene nanosheets, without defects and impurities, which is optimal for electrical energy storage devices.

Scientific supervisor: Ph.D., Professor, Azat Seitkhan

Results obtained: Within the framework of this research, nanostructured MAX phases, including Ti₃AlC₂, were synthesized with optimized temperature, pressure, and compositional parameters. It was found that at 1400°C, a pressure of 7–10 tons, and the selected molar ratio, the content of the target phase exceeds 70% with minimal impurities. Structural characterization was confirmed using X-ray diffraction and electron microscopy techniques. Various etching methods were applied to obtain MXenes, among which the minimally intensive layer delamination (MILD) method based on HCl/LiF demonstrated the highest efficiency. The resulting MXenes exhibit high delamination quality, low defect density, and a uniform layered structure. The developed approaches improve economic efficiency by reducing energy consumption and increasing product yield. The results demonstrate a high scientific and technical level and show strong potential for application in energy storage systems such as supercapacitors and batteries.

List of publications with links to them

  1. Askaruly K., Idrissov N., Abdisattar A., Azat S., Kuli Z., Yeleuov M., Malchik F., Daulbayev C., Yszhan Y., Sarsembayeva B., Nysanbayeva S. Utilizing rice husk-derived Si/C composites to enhance energy capacity and cycle sustainability of lithium-ion batteries // Diamond & Related Materials. – 2024. – Vol. 149. – Article 111631. – DOI: https://doi.org/10.1016/j.diamond.2024.111631. – URL: https://www.sciencedirect.com/science/article/abs/pii/S0925963524008446.
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