[1] V. Matkovich, J. Economy, Structure of MgAlB₁₄ and a brief critique of structural relationships in higher borides, Acta Crystallographica Section B: Structural Crystallography and Crystal Chemistry, 26 (1970) 616-621.
[2] B. Cook, et al., A new class of ultra-hard materials based on AlMgB₁₄, Scripta Materialia, 42 (2000) 597-602.
[3] B. Cook, J. Harringa, A. Russell, Superabrasive boride and a method of preparing the same by mechanical alloying and hot pressing, 2002.
[4] I. Bairamashvili, et al., The preparation of α-AlB₁₂ and AlMgB₁₄ samples and an investigation of their electrothermal properties, Journal of the Less Common Metals, 67 (1979) 461-464.
[5] H. Werheit, et al., Optical and electronic properties of the orthorhombic MgAlB₁₄-type borides, Journal of Alloys and Compounds, 202 (1993) 269-281.
[6] J. Chen, et al., Self-lubricity and wear behaviors of bulk polycrystalline AlMgB₁₄ depending on the counterparts in deionized water, Tribology International, 128 (2018) 9-20.
[7] A.M. Grishin, V.V. Putrolaynen, Hard and Highly Adhesive AlMgB₁₄ Coatings RF Sputtered on Tungsten Carbide and High-Speed Steel, Materials, 16 (2023) 6930.
[8] E. Bakhshizade, et al., Mechanistic Insights into Synergistic Strengthening and Tribological Properties of Al–AlMgB₁₄–Graphite Hybrid Nanocomposite, Journal of Science: Advanced Materials and Devices, 11 (2026) 101250.
[9] S. Mondal, P. Mondal, D.P. Mishra, Research progress on ceramic nanomaterials reinforced aluminum matrix nanocomposites, Materials Science and Technology, 39 (2023) 1841-1857.
[10] D. Tkachev, et al., Structure and frictional properties of ultrahard AlMgB₁₄ thin coatings, Nanomaterials, 13 (2023) 1589.
[11] K. Saglik, et al., Thermoelectric borides: Review and future perspectives, Advanced Physics Research, 2 (2023) 2300010.
[12] D. Muthu, et al., Effects of sample preparation on the mechanical properties of AlMgB₁₄, High Pressure Research, 28 (2008) 63-68.
[13] Z. Xie, et al., Aluminium magnesium boride: synthesis, sintering and microstructure, Advances in Applied Ceramics, 116 (2017) 341-347.
[14] M. Takeda, et al., Thermoelectric properties of some metal borides, Journal of Solid State Chemistry, 177 (2004) 471-475.
[15] P.Y. Nikitin, I.A. Zhukov, A.B. Vorozhtsov, Decomposition mechanism of AlMgB₁₄ during the spark plasma sintering, Journal of Materials Research and Technology, 11 (2021) 687-692.
[16] I. Zhukov, et al., The use of intermetallic AlₓMgᵧ powder to obtain AlMgB₁₄-based materials, Materials Today Communications, 22 (2020) 100848.
[17] A. Zolriasatein, A. Shokuhfar, Homogenizing annealing heat treatment effects on the microstructure, hardness and thermal behavior of Al₁₂Mg₁₇ complex metallic alloy, Materials & Design, 75 (2015) 17-23.
[18] C. Suryanarayana, Mechanical alloying and milling, Progress in Materials Science, 46 (2001) 1-184.
[19] E. Bakhshizade, et al., Improved Mechanical and Tribological Behavior of the Novel Al–AlMgB₁₄–Graphite Hybrid Nanocomposite via Optimized Mechanical Milling, Results in Engineering, 30 (2026) 110470.
[20] X. Yang, L. Wen, Microstructural and mechanical behavior of mechanical alloying intermetallic compounds between aluminum, magnesium and boron, Journal of Ceramic Processing Research, 14 (2013) 583-586.
[21] Z. Yumei, et al., Synthesis and characterization of AlMgB₁₄ hot pressed under different environments, Science of Sintering, 49 (2017) 311-317.
[22] Y. Zhou, et al., Effect of Y₂O₃ addition on microstructure and mechanical properties of spark plasma sintered AlMgB₁₄ and AlMgB₁₄-TiB₂, Ceramics International, 44 (2018) 8591-8598.
[23] T. Lewis, et al., Al₂MgO₄, Fe₃O₄, and FeB impurities in AlMgB₁₄, Materials Science and Engineering: A, 351 (2003) 117-122.
