Laser initiated Ti 3 SiC 2 powder and coating synthesis

Rutkowski, Paweł; Huebner, Jan; Kata, Dariusz; Lis, Jerzy; Graboś, Adrian; Chlubny, L.

doi:10.1016/j.ceramint.2018.03.143

Cited by 10 publications

(1 citation statement)

References 18 publications

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“…Bulk MAX phases have been made by hot pressing (HP) of elemental powders, by the sintering of a mixture of elements or compounds under isostatic pressure at high temperature [14-19,22-25,27,29,105,118], by pressureless sintering [119-125], by a solid–liquid reaction synthesis [21,126-128], by a mechanically and thermally [14,129-131] or laser induced [132], high temperature self-propagation reaction (SHS), by an SHS method followed by uniaxial HP [133], by SPS [9,27,28,134] and by a strong magnetic field alignment (SMFA) technique followed by SPS [135-139] or by pulse discharge sintering [140-143]. For the synthesis of single-phase bulk Cr 2 AlC a temperature range of 1050–1100°C and a high pressure appeared to be required [4,5,10…”

Section: Synthesis Methodsmentioning

confidence: 99%

The correlation between structure, multifunctional properties and application of PVD MAX phase coatings. Part I. Texture and room temperature properties

Berger

2019

Surface Engineering

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Recent research has highlighted the potential of MAX phase properties including its machinability, good mechanical behaviour, high electric and thermal conductivity as well as good oxidation and erosion resistance to a range of applications including electrical contact coatings, high-temperature heating elements, and barrier-and protection coatings in gasturbine engine. Successful engineering of MAX phases requires an understanding of how the manufacturing conditions and the deposition parameters influence the composition, crystallographic, electronic structure and morphology. It is, in turn, important to know how these determine the anisotropy of physical, mechanical and technological properties of the material. A focus point of this part of the review is the systemic study of the regular trends in the preparation parameter-structure-properties relationships of MAX phase coatings. In particular, the Cr-Al-C (Y) coating synthesised by the HIPIMS technique will be considered and compared with other synthesised MAX phase bulk ceramics and coatings.

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