All atomically laminated MAB phases (M = transition metal, A = A-group element, and B = boron) exhibit orthorhombic or tetragonal symmetry, with the only exception being hexagonal Ti2InB2. Inspired by the recent discovery of chemically ordered hexagonal carbides, i-MAX phases, we perform an extensive first-principles study to explore chemical ordering upon metal alloying of M2AlB2 (M from groups 3 to 9) in orthorhombic and hexagonal symmetry. Fifteen stable novel phases with in-plane chemical ordering are identified, coined i-MAB, along with 16 disordered stable alloys. The predictions are verified through the powder synthesis of Mo4/3Y2/3 AlB2 and Mo4/3Sc2/3AlB2 of space group R (3) over barm (no. 166), displaying the characteristic in-pla...
Exploratory theoretical predictions in uncharted structural and compositional space are integral to ...
The recent discovery of Cr4AlB4, a laminated ternary metal boride belonging to the family of layered...
We present theoretical prediction and experimental evidence of a new MAX phase alloy, Mo2ScAlC2, wit...
All atomically laminated MAB phases (M = transition metal, A = A-group element, and B = boron) exhib...
Inspired by the recent discovery of Ti4MoSiB2, a quaternary phase with out-of-plane chemical order t...
We report the synthesis of three out-of-plane chemically ordered quaternary transition metal borides...
MAB phases are layered materials combining metallic and ceramic attributes. Their ternary compositio...
The enigma of MAX phases and their hybrids prevails. We probe transition metal (M) alloying in MAX p...
The recent discovery of chemical ordering in quaternary borides offers new ways of exploring propert...
The synthesis procedure of any materials system is often considered a challenging task if performed ...
In this work we systematically explore a class of atomically laminated materials, M(n+1)AX(n) (MAX) ...
With increased chemical diversity and structural complexity comes the opportunities for innovative m...
In the quest for finding novel thermodynamically stable, layered, MAB phases promising for synthesis...
The MAB phases are a family of layered ternary transition metal borides, with atomically laminated c...
Recently, we presented a family of in-plane chemically ordered transition metal borides of the gener...
Exploratory theoretical predictions in uncharted structural and compositional space are integral to ...
The recent discovery of Cr4AlB4, a laminated ternary metal boride belonging to the family of layered...
We present theoretical prediction and experimental evidence of a new MAX phase alloy, Mo2ScAlC2, wit...
All atomically laminated MAB phases (M = transition metal, A = A-group element, and B = boron) exhib...
Inspired by the recent discovery of Ti4MoSiB2, a quaternary phase with out-of-plane chemical order t...
We report the synthesis of three out-of-plane chemically ordered quaternary transition metal borides...
MAB phases are layered materials combining metallic and ceramic attributes. Their ternary compositio...
The enigma of MAX phases and their hybrids prevails. We probe transition metal (M) alloying in MAX p...
The recent discovery of chemical ordering in quaternary borides offers new ways of exploring propert...
The synthesis procedure of any materials system is often considered a challenging task if performed ...
In this work we systematically explore a class of atomically laminated materials, M(n+1)AX(n) (MAX) ...
With increased chemical diversity and structural complexity comes the opportunities for innovative m...
In the quest for finding novel thermodynamically stable, layered, MAB phases promising for synthesis...
The MAB phases are a family of layered ternary transition metal borides, with atomically laminated c...
Recently, we presented a family of in-plane chemically ordered transition metal borides of the gener...
Exploratory theoretical predictions in uncharted structural and compositional space are integral to ...
The recent discovery of Cr4AlB4, a laminated ternary metal boride belonging to the family of layered...
We present theoretical prediction and experimental evidence of a new MAX phase alloy, Mo2ScAlC2, wit...