Journal of Inorganic Materials, Volume. 38, Issue 8, 845(2023)

Progress in Structural Tailoring and Properties of Ternary Layered Ceramics

Haoming DING1,2,3, Mian LI1,3, Youbing LI1,3, Ke CHEN1,3, Yukun XIAO1,3, Jie ZHOU4, Quanzheng TAO4, Rosen Johanna4, Hang YIN5, Yuelei BAI5, Bikun ZHANG6, Zhimei SUN6, Junjie WANG7, Yiming ZHANG1,3, Zhenying HUANG8, Peigen ZHANG9, Zhengming SUN9, Meikang HAN10, Shuang ZHAO11, Chenxu WANG11, and Qing HUANG1,3、*
Author Affiliations
  • 11. Ningbo Institute of Materials Technology and Engineering, Chinese Academy of Sciences, Ningbo 315201, China
  • 22. University of Chinese Academy of Sciences, Beijing 101408, China
  • 33. Qianwan Institute of CHiTECH, Ningbo 315336, China
  • 44. Department of Physics, Chemistry and Biology (IFM), Linköping University, Linköping SE-58183, Sweden
  • 55. National Key Laboratory of Science and Technology on Advanced Composites in Special Environments and Center for Composite Materials and Structures, Harbin Institute of Technology, Harbin 150001, China
  • 66. School of Materials Science and Engineering, Beihang University, Beijing 100191, China
  • 77. School of Materials Science and Engineering, Northwestern Polytechnic University, Xi’an 710072, China
  • 88. School of Mechanical, Electronic and Control Engineering, Beijing Jiaotong University, Beijing 100044, China
  • 99. School of Materials Science and Engineering, Southeast University, Nanjing 211189, China
  • 1010. Institute of Optoelectronics and Shanghai Frontiers Science Research Base of Intelligent Optoelectronics and Perception, Fudan University, Shanghai 200433, China
  • 1111. State Key Laboratory of Nuclear Physics and Technology, Peking University, Beijing 100871, China
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    Figures & Tables(28)
    Non-exhaustive chronicle of ternary layered materials
    Atomic and structural regulation of MAX phases
    Different methods for the synthesis of MXene
    Structural editing of MAX phases and MXene aided by chemical scissors
    Crystal structure and physical properties of novel chalcogenide MAX phases
    Preparation of single crystal MAX phases
    Heat capacity and anisotropic thermal conductivity in Cr2AlC single crystals at high temperatures[110]
    i-MAX phases and its derived two-dimensional product of i-MXene[50]
    MAB phases, i-MAB phases and o-MAB phases
    Two-dimensional products derived from MAB phases through chemical etching
    Experimentally measured unilateral notched beam fracture toughness as a function of the weakest to strongest chemical bond stiffness ratio kmin/kmax for some typical ternary layered compounds (MAX and MAB phases)[138]
    Theoretical calculation of MAB phases
    Members and atomic structures of all reported orth- and hex-MBenes[163]
    Discovery of ternary MAX phases
    Theoretical study of quaternary MAB phases
    Structure mapping based on the selected characteristic quantities of electron concentration and atomic sizes[36]
    MAX-reinforced metal matrix composites
    SEM images of a Sn whisker alternately cultivated in air and vacuum[259]
    SEM images of fractured Zr2InC surface and an In whisker[243]
    Microstructure of Sn whiskers/Ti2SnC interface[266]
    (a) Electrical conductivity of different MXene films and (b) conductivity-dependent electromagnetic interference shielding effectiveness of different MXenes[282]
    Defect generation and microstructural transformation in MAX phase materials under irradiation
    MAX phase irradiation temperature effect
    Phase transformation and amorphization caused by irradiation of MAX phases[302]
    STEM micrographs of (Mo2/3RE1/3)2GaC i-MAX phase along (a) [100] and (b) [010] zone axis[120]
    • Table 1. List of synthesized i-MAX phases

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      Table 1. List of synthesized i-MAX phases

      M′4/3M″2/3AXRef.
      Mo4/3Sc2/3/Y2/3AlC[50,118]
      W4/3Sc2/3/Y2/3AlC[123]
      Mn4/3Sc2/3GaC[124]
      Cr4/3Sc2/3/Y2/3/Zr2/3AlC[125-126]
      Cr4/3Sc2/3GaC[16,124]
      V4/3Sc2/3/Zr2/3AlC[118,127]
      Mo4/3Sc2/3/Y2/3GaC[128]
      Mo4/3Ce2/3/Pr2/3/Nd2/3/Sm2/3/Gd2/3/Tb2/3/Dy2/3/Ho2/3/Er2/3/Tm2/3/Lu2/3AlC[119]
      Mo4/3Gd2/3/Tb2/3/Dy2/3/Ho2/3/Er2/3/Tm2/3/Yb2/3/Lu2/3GaC[120]
      W4/3Gd2/3/Tb2/3/Dy2/3/Ho2/3/Er2/3/Tm2/3/Lu2/3AlC[121]
      Cr4/3Gd2/3/Tb2/3/Dy2/3/Ho2/3/Er2/3/Tm2/3/Lu2/3AlC[122]
    • Table 2. Stable MAB phases by theoretical prediction

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      Table 2. Stable MAB phases by theoretical prediction

      MAB phaseM typeA typeRef.MAB phaseM typeA typeRef.
      Orthorhombic M2A2B2TiAl[160-161]Orthorhombic M3AB4ScAl[160-161]
      HfTi
      VZr
      NbHf
      TaV
      TcNb
      CrTa
      MnMo
      Orthorhombic M2AB2ScAl[160-161]W
      TiMn
      ZrFe
      HfOrthorhombic M4AB6ScAl[160-161]
      VTi
      NbZr
      WHf
      TcV
      RhNb
      NiTa
      CoMo
      Orthorhombic M3A2B2ScAl[160-161]Hexagonal M2AB2TiSn[52]
      TiHfIn[162]
      ZrSn
      HfZrIn
      CrPb
      MnTl
      TcHexagonal M3AB4HfIn[162]
      FeSn
      NiP
      ZrCd
      Pb
    • Table 3. Theoretical mechanical properties of several MAB-phases, including bulk modulus (B), shear modulus (G), Young’s modulus (E), and Poisson ratio (ν)

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      Table 3. Theoretical mechanical properties of several MAB-phases, including bulk modulus (B), shear modulus (G), Young’s modulus (E), and Poisson ratio (ν)

      MAB phaseB/GPa G/GPa E/GPa ¯ν/GPa Ref.
      Mn2AlB22391694110.21[160]
      Fe2AlB22091333290.24
      Co2AlB2216922420.31
      TiAlB1451162740.18
      VAlB1731333170.19
      NbAlB1801303150.21
      TaAlB1921383330.21
      CrAlB1891403380.20
      MnAlB1671012520.25
      TcAlB2201142920.28
      Sc2AlB22381423560.25
      Ti2AlB21701503470.16
      Zr2AlB21521122700.20
      Hf2AlB21681323140.19
      V2AlB21951293170.23
      Nb2AlB21991102790.27
      Cr2AlB22291774220.19
      Mo2AlB22381423560.25
      W2AlB22621393540.28
      Tc2AlB22601323390.28
      Ni2AlB2200912370.30
      MoAlB2131463570.22[164]
      WAlB2321463620.24
      Mn2AlB22221613880.21[165]
      Fe2AlB22101323290.24[165]
      Co2AlB22411012660.31[166]
      Zr3CdB4822020.37[167]
      Hf3PB41804070.19[168]
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    Haoming DING, Mian LI, Youbing LI, Ke CHEN, Yukun XIAO, Jie ZHOU, Quanzheng TAO, Rosen Johanna, Hang YIN, Yuelei BAI, Bikun ZHANG, Zhimei SUN, Junjie WANG, Yiming ZHANG, Zhenying HUANG, Peigen ZHANG, Zhengming SUN, Meikang HAN, Shuang ZHAO, Chenxu WANG, Qing HUANG. Progress in Structural Tailoring and Properties of Ternary Layered Ceramics[J]. Journal of Inorganic Materials, 2023, 38(8): 845

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    Paper Information

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    Received: Mar. 9, 2023

    Accepted: --

    Published Online: Dec. 28, 2023

    The Author Email: Qing HUANG (huangqing@nimte.ac.cn)

    DOI:10.15541/jim20230123

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