A critical overview of the various parameters, such as annealing atmospheres, pore microstructures, and pore sizes, that are critical in controlling the decomposition kinetics of Ti-based MAX phases is given in this paper. Ti-based MAX phases tend to decompose readily above 1400 °C during vacuum annealing to binary carbide (e.g. TiCx) or binary nitride (e.g. TiNx), primarily through the sublimation of A elements such as Al or Si, forming in a porous MXx surface layer. Arrhenius Avrami equations were used to determine the activation energy of phase decomposition and to model the kinetics of isothermal phase decomposition. Ironically, the understanding of phase decomposition via exfoliating or selective de-intercalation by chemical etching fo...
This article is a Critical review of the M(n + 1)AX(n) phases ("MAX phases", where n = 1, 2, or 3) f...
The susceptibility of two MAX phases (Ti2AlN and Ti4AlN3) to high-temperature thermal dissociation i...
Materials within nuclear reactors experience some of the harshest environments currently known to ma...
A critical overview of the various parameters, such as annealing atmospheres, pore microstructures, ...
MAX phases are remarkable materials but they become unstable at elevated temperatures and decompose ...
The susceptibility of MAX phases to thermal dissociation at 1300-1800 °C in high vacuum has been stu...
MAX phases are remarkable materials but they become unstable at elevated temperatures and decompose ...
The role of pore microstructures on the susceptibility of MAX phases (Ti3SiC2, Ti3AlC2, Ti2AlC, Ti2A...
The role of pore microstructures on the susceptibility of MAX phases (Ti3SiC2, Ti3AIC2, TisAIC, Ti2A...
The susceptibility of MAX phases to thermal dissociation at 1300-1550 °C in high vacuum has been stu...
The susceptibility of MAX phases to thermal dissociation at 1300-1550 °C in high vacuum has been stu...
The susceptibility of two MAX phases (Ti2AlN and Ti 4AlN3) to high-temperature thermal dissociation ...
The susceptibility of four MAX phases (Ti2AlC, Cr2AlC, Ti3AlC2, and Ti3SiC2) to high-temperature the...
MAX phases are promising candidates for high-temperature wear, hypersonic and nuclear applications. ...
The susceptibility of MAX phases to thermal dissociation at 1300-1550 °C in high vacuum has been stu...
This article is a Critical review of the M(n + 1)AX(n) phases ("MAX phases", where n = 1, 2, or 3) f...
The susceptibility of two MAX phases (Ti2AlN and Ti4AlN3) to high-temperature thermal dissociation i...
Materials within nuclear reactors experience some of the harshest environments currently known to ma...
A critical overview of the various parameters, such as annealing atmospheres, pore microstructures, ...
MAX phases are remarkable materials but they become unstable at elevated temperatures and decompose ...
The susceptibility of MAX phases to thermal dissociation at 1300-1800 °C in high vacuum has been stu...
MAX phases are remarkable materials but they become unstable at elevated temperatures and decompose ...
The role of pore microstructures on the susceptibility of MAX phases (Ti3SiC2, Ti3AlC2, Ti2AlC, Ti2A...
The role of pore microstructures on the susceptibility of MAX phases (Ti3SiC2, Ti3AIC2, TisAIC, Ti2A...
The susceptibility of MAX phases to thermal dissociation at 1300-1550 °C in high vacuum has been stu...
The susceptibility of MAX phases to thermal dissociation at 1300-1550 °C in high vacuum has been stu...
The susceptibility of two MAX phases (Ti2AlN and Ti 4AlN3) to high-temperature thermal dissociation ...
The susceptibility of four MAX phases (Ti2AlC, Cr2AlC, Ti3AlC2, and Ti3SiC2) to high-temperature the...
MAX phases are promising candidates for high-temperature wear, hypersonic and nuclear applications. ...
The susceptibility of MAX phases to thermal dissociation at 1300-1550 °C in high vacuum has been stu...
This article is a Critical review of the M(n + 1)AX(n) phases ("MAX phases", where n = 1, 2, or 3) f...
The susceptibility of two MAX phases (Ti2AlN and Ti4AlN3) to high-temperature thermal dissociation i...
Materials within nuclear reactors experience some of the harshest environments currently known to ma...