Literature DB >> 28560274

Properties of particle phases for metal-matrix-composite design.

C Baron1, H Springer1.   

Abstract

Successful metallurgical design of metal-matrix-composites relies on the knowledge of the intrinsic property profiles of the metal matrix and especially the compounds employed for particles, whiskers or fibres. In this work we compiled the key properties melting point, bulk modulus, shear modulus, Young׳s modulus, density, hardness, Poisson׳s ratio and structure/space group from the widespread literature data for the most relevant compound types, i.e. borides, carbo-borides, carbides, oxides, nitrides and intermetallic phases.

Entities:  

Keywords:  Metal-matrix-composites; Particles; Properties

Year:  2017        PMID: 28560274      PMCID: PMC5440274          DOI: 10.1016/j.dib.2017.04.038

Source DB:  PubMed          Journal:  Data Brief        ISSN: 2352-3409


Specifications Table Value of the data The comprehensive data collection allows straightforward comparisons of individual properties, types and groups of compounds. Readily obtainable ratios of properties allow judging particles concerning their suitability for specific design goals (such as the material stiffness/density ratio). Specific effects of particles on the properties of the bulk composite can be estimated, for example regarding the co-deformation of particles and matrix influenced by their crystallographic coherency, or the amount of particles required for a specific gain in stiffness.

Data

Metal-matrix-composites allow overcoming the specific limitations of metallic and ceramic materials by blending their typically mutually exclusive property profiles. Knowledge based design of the composites requires, depending on the desired property profile and application, the choice of suitable metallic matrices and particles characterized by their intrinsic properties. In the following table the intrinsic properties (melting point, bulk modulus (B), shear modulus (G), Young׳s modulus (E), density, hardness, Poisson׳s ratio and structure/space group) of different types of phases (borides, carbo-borides, carbides, oxides, nitrides and intermetallics) are compiled from literature sources. The reference for each value or range of values is listed next to it on the right. Unless specified otherwise, values were assumed to have been determined experimentally as specifications are in most cases not given in the listed references. Densities determined by X-ray diffraction (XRD) are enclosed in curved brackets {}. Theoretically determined values are marked with a star *. Furthermore, the main selection criteria brittleness (expressed by the B/G ratio; B/G values below 1.75 are considered to represent ‘more brittle’ compounds [1]) and specific modulus (i.e. the E/density ratio) have been derived. If more than one value is given for E and density of a compound, i.e. several values from one reference or diverging values from different references, the E/density ratio is given as a range. In case of several values listed for B and G, the determined B/G ratio was chosen conservatively using the lowest B and highest G value, respectively (Table 1).
Table 1
Legend:theoretical value; {} XRD;
PhaseMelting point / °CRef.B Bulk modulus / GPaG Shear modulus / GPaRef.B / GE Young's modulus / GPaRef.Density / g cm-3Ref.Specific modulus / GPa cm3g-1Hardness / GPaRef.Poisson's ratioRef.Space group / structureRef.
Borides
AlB2975[2]19095[3]2.00244.4[3]{3.19}[4]76.6 - 90.523.6[4]0.29[3]P6/mmm[3]
2.9[5]P6/mmm[2]
2.955[6]
2.7[7]
BeB2>1970[2]215[8]2.32 - 2.48[2]31.2[9]P6/mmm[2]
~ 1700[6]
BeB6~ 2100[2]2.35 / {2.33}[2]25.3[9]P43212[2]
2300[6]
CrB1515 / 1550+-50[4]6.05[4]20.9[4]Cmcm[2]
~ 2060[2]6.04 / {6.11}[2]19.2 - 22.9[10]
2050[6]6.05 / {6.11}11.8 - 12.7[6], [9]
CrB22280[2]239.2139.9[3]1.71415.4[3][5.6][4]34.0 - 79.617.7[4]0.26[3]P6/mmm[2]
1960 / 1900 / 1850+-50[4]211[4]5.22 / {5.60}[6]20.3 - 22.5[10]hex (c-32 type)[4]
2200+-50[6]210.9[9]6.2[7]20.6[6]
2100[7]235.6[7]~ 38.0[7]
CrB41400 - 1600[9]265261[11]1.02312[12]48.0[11]0.12[11]
Cr3B21960[4]6.13 / 6.7[4]orthorhombic[4]
1960[7]6.1[7]
ErB2137.4119.7[3]1.15278.3[3]-41.50.16[3]P6/mmm[2]
Fe2B1389[13]249.760.2[14]4.15290[13]7.15[13]25.7 - 41.413.1+-0.5[9]I4/mcm[2]
1389[2]19467[14]2.90190[14]~ 7.0[2]
~ 1390[4]331152.8[14]2.17184[14]
1410[9]284.4[9]
FeB4253177[11]1.43475.71[15]24.2[11]0.2[15]
264.73197.97[15]
GdB2131.2113.5[11]1.16264.3[3]0.16[3]P6/mmm[2]
HfB23100 / 3060 - 3065 / 3250 +-100[4]260.9233[3]1.12538.7[3]11.2[4]45.9 - 58.528.4+-4.9[9]0.16[3]hex (c-32 type)[4]
3250[9]215233[16]0.92514[16]11.19[17]28.0[16]0.12[16]hex[17]
3380[17]265 - 288240 - 273[16]0.97 - 1.2554 - 614[16]10.5 / {11.2}[2], [6]21.2 - 28.4[17]0.124 - 0.159[16]P6/mmm[2]
3250[2]530[17]28.4[6]0.12[17]
3250+-100[6]
3250[7]~ 49.0[7]
LaB6> 2100[4]478.6[9]{4.72}[4]100.5 - 101.527.2[9]Pm3m[2]
2530[2]4.714[2]
4.76 / {4.72}[6]
LuB2178.4173.3[3]1.03392.7[3]{9.656}[9]40.2 - 40.70.13[3]P6/mmm[2]
{9.76}[6]
MgB2151.5116.4[3]1.30278[3]2.48 - 2.67 / {2.63}[9]105.5 - 112.10.19[3]
120[8]2.62 / {2.633}[2]
151[8]
MnB21988[9]220.1121.6[3]1.81318.4[3]{5.344}[9]59.3 - 59.616.7+-0.5[9]0.31[3]P6/mmm[2]
{5.37}[6]
MnB42160[9]270245[11]1.1041.5[11]
35.3+-1[9]
MoB22100 / 2250+-50[4]302.5186[3]1.63463.1[3]{7.78}[6]59.4 - 59.511.7 / 12.6 / 13.5[4]0.24[3]hex. AlB2 structure[4]
2350[9]{7.78} / {7.8}[4]P6/mmm[2]
MoB4< ~ 1600[2]287239[11]1.204.8 / {4.96}[2], [6]36.7[11]P6/mmm[2]
Mo2B2000 / 2165[4]{9.3} / {9.31} / 9.26[4]16.3[4]CuAl2 structure; c-16 type[4]
9.1 / {9.31}[6]24.5[6], [9]
Mo2B5decompose to MoB2 @ 1600 - 1650[4]671.8[9]7.01 / {7.48}[2], [4], [6]89.8 - 95.823.0[9]rhombohedral[4]
< ~ 1600[2]R3m[2]
NbB22900[4]286.3210.4[3]1.36507[3]6.4 / 6.5 / 6.6 / 6.97 / {7.21}[4]70.4 - 105.816.7 / 25.4[4]0.2[3]hex (c-32 type)[4]
~ 3000[2]637.5[9]6.6[2]25.5[9]P6/mmm[2]
3000[6]676.8[7]6.97 / {7.00}[9]
3000[7]7.2[7]
~ 94.0[7]
NbB4243194[11]1.2530.4[11]P4/mbm[2]
NiB990[2]7.13[2]15.2[9]Cmcm[2]
6.5 / {7.13}[6]
NpB2206.7169.8[3]1.22399.3[3]-0.19[3]
PrB6> 2250[2]{4.85}[4]24.2[9]
4.53 / {4.84}[2]Pm3m[2]
PuB21825[9]207.4174.1[3]1.19408.1[3]{12.674}[9]31.9 - 36.8-0.17[3]
< 1200[2]{11.1}[2]P6/mmm[2]
{12.81}[6]
ScB22250[2]243.8256.6[3]0.95431[3]3.65 / {3.667}[9]117.4 - 118.117.5+-2.7[9]0.11[3]
2250[6]{3.67}[2]P6/mmm[2]
SmB2128110.8[3]1.16258[3]0.16[3]
TaB23000 - 3150[4]295.8191.5[3]1.54370[4]11.7 / {12.6}[4], [6]20.4 - 40.424.9 / 25.6+-1.2 / 16.7[4]0.23[3]hex (c-32 type)[4]
3037[9]472.5[3]12.38 / {12.62}[9]19 - 25[17]hex[17]
3040[17]265.9[9]12.54[17]24.5+-0.4[9]P6/mmm[2]
257[17]
TbB2131.3115.4[3]1.14267.8[3]-0.16[3]P6/mmm[2]
TiB5.09 / {4.565}[9]26.5- 27.5[9]fcc[4]
5.09 / 5.26[2]F43m[2]
TiB23225[18]240255[19]0.94565[19]4.52[18]81.0 - 129.925.0[19]0.108[19]hex P6/mmm[19]
2980 / 2900+-80[4]250.3260.7[3]0.96530[13]4.5[19]25 - 35[18]0.11[3]hex[18]
2900[20]238240.4[21]0.99366[4]4.5[13]33.3 / 33.0 / 26.6 / 25.3[4]0.109 / 0.11[22]hex (c-32 type)[4]
2790[9]581[3]4.5 / 4.52 / {4.52}[4]25 - 33[17]P6/mmm[2]
3225[17]594 / 569[22]4.5[20]33.0+-0.6[9]hex[17]
2800[2]370[20]4.52[17]hex[20]
2980[7]529.6[9]4.38[2]
551[17]4.5 / {4.52}[6]0.11[17]
529.6[6]4.5[7]
535.5[7]119[7]
TiB4226190[11]1.1932.2[11]
TmB2137.5120.5[3]1.14279.7[3]0.16[3]
UB22385[2]205.5209.5[3]0.98469.6[3]{12.692}[9]36.9 - 37.013.6[4]0.12[3]P6/mmm[2]
{12.71}[4]14.8[9]
VB~ 2250[2]5.44 / {5.28}[4]orthorhombic / Cmcm[2], [4]
{5.44}[6]
VB22040 - 2160[4]279.5240.9[3]1.16562.2[3]4.61 / 5.28 / {5.10}[4]50.7 - 122.020.4[4]0.16[3]hex (c-32 type)[4]
~ 2400[2]267.7[9]5.06 - 5.28[9]27.5+-0.1[9]P6/mmm[2]
2400+-50[6]4.61 / {5.10}[2]
2100[7]5.28 / {5.10}[6]
5.1[7]
VB4241237[11]1.0245.2[11]
W2B2770+-80[4]322.5164.1[3]1.97420.9[3]16 / {10.72}[6]24.5 - 39.323.5[6]0.28[3]tetragonal[4]
17.17 / 16 / 15.98 / {16.72}[4]
YB22100[2]173.5145.3[3]1.19340.8[3]{3.370}[9]101.1 - 117.10.17[3]P6/mmm[2]
{2.91}[6]
YbB2153.7130.2[3]1.18304.6[3]0.17[3]
YbB61538 +-33[4]5.45 / {5.56}[4]25.5[9]Pm3m[2]
> 2000[9]
ZrB2922 / 2992 +-50[4]5.7 / {6.7}[2], [4], [6]69 - 72 HRA[4]cubic / Fm3m[2], [4]
35 - 36[9]
ZrB23000[18]220225[16]0.98350[18]6.1[18]55.6 - 104.822 - 26[18]0.13[3]hex[18]
2980 / 2990+-50 / 3040+-50[4]245243[16]1.01498 - 638[4]{6.09} / {6.102}[4]23+-0.9[16]0.144[4]hex (c-32 type)[4]
2990[20]238.6231.4[3]1.03524.6[3]6.1[20]15.3 / 21.6 / 87 - 89 HRA[4]0.14[22]hex[17]
3200[9]238 - 276239 - 260[16]0.92 - 1.15343.2[9]6.1[17]25.3 - 28.0[17]0.09 - 0.28[22]P6/mmm[2]
3245[17]207.6192.2[4]554 / 502[16]6.17 / {6.09}[2]22.1[6]0. 109 / 0.13[16]
3040[2]520 - 555[16]6.1[7]22.1+-0.2[9]0.137 - 0.144[16]
3060[7]350[20]
500[17]0.11[17]
518.5[7]~ 85[7]
ZrB4199[11]
Carbo-Borides
Hf2BC207150[23]1.38362[23]
Mo2BC2800[2]313181[23]1.73466 - 473[21]8.71[2]53.5 - 54.30.26[21]Cmcm[2]
324185 - 188[21]1.72 - 1.75
Nb2BC259163[23]1.59404[23]
Ta2BC286168[23]1.70421[23]
Ti2BC208158[23]1.32378[23]
V2BC260178[23]1.46435[23]
W2BC350184[23]1.90468[23]
Zr2BC187128[23]1.46312[23]
Carbides
B4C2350[13]247200[11]1.24448[13]2.52[18]177.8 - 191.137 - 47[18]orthorhombic[18]
2450[18]175 (graph)[24]450[18]2.52[20]30 (graph)[24]orthorombic[20]
2450[20]472[11]2.51 / 2.484 / 2.47[2]31.7[11]R3m[2]
2450[2]450[20]
2420[7]
Cr3C21800[13]371[13]6.74[13]55.0 - 55.817.7[9]orthorhombic[4]
1830 - 1890[4]370 @ 449 °C[25]6.68 - 6.7[4]Pnma[2]
1895[9]372.7[9]
~ 1900[2]
1985[7]
Cr4C1510[7]
Cr7C31782[2]311.7 / 309143.9[14]2.15371 / 374[14]6.9[2]53.8 - 54.218.5[9]P31c[2]
1780[7]
Fe3C259.2119.6[14]2.17177[26]7.4[4]23.90.26[26]
HfC3000–3900[13]317[13]12.2[13]24.8 - 23.824.8 - 31.4[9][13]
3890[20]400[20]12.3[20]26.0[17]cubic[20]
3900[17]352.1[9]12.76[17]29.0+-3.0[27]fcc[17]
3890[2]352[17]Fm3m[2]
Mo2C2410[28]228[13]8.9[13]24.8 - 59.914.7+-1.3[9]P63/mmc[2]
2522[2]530 @ 390 °C[25]9.04 / {9.18}[9]
533.5[9]
NbC1900[13]338[13]7.6[13]43.2 - 72.723.0+-3.0[27]B1 fm3m[29]
3613[9]492.93 - 549.66[30]7.56 / {7.82}[9]Fm3m[2]
3600[2]338.3[9]7.8[7]
3775[7]540 @ 474 °C[25]
350 - 500[31]
546[7]70.0[7]
Nb2C3100[28]7.86 / {7.85}[9]Pnma[2]
3035[9]6.7[7]
2675[7]
PKD463.1 / 442540[32]0.821013 ± 52.6[33]3.51[33]273.6 - 303.670.0[32]0.144 ± 0.055[33]cubic[33]
368397.5[15]1185.3[15]0.0077[15]
SiC2200[18]480[18]3.2[18]117.1 - 15820 - 35[18]0.17[34]hex[18]
2300[20]200[34]480[20], [34]3.21[20]32.0[17]0.17[35]hex[20]
2820[17]386.4[9]3.21[17]0.16[17]polymorphic[17]
2750[7]427[35]3.123 / 3.213[2]F43m[2]
415[17]3.3[7]
495[7]150[7]
TaC3880 - 3915[13]336[13]13.9[13]19.7 - 24.218.2[17]Fm3m[2]
3880[20]290[20]14.5[20]16.0+-2.0[27]cubic[20]
3985[9]285.4[9]14.5[17]cubic[17]
3800[17]285[17]
3780[2]
TiC3140[28]242.2188.5[36]1.28400[18]4.93[18]64.8 - 110.224 - 32[18]0.1908[36]fcc[18]
3067[18]240[37]462.9[36]4.905[36]31.4[9]0.17[25]cubic[20]
3140[20]320[20]4.93[20]30.0[17]cubic[17]
3100[17]451[17]4.94[17]32+-2.0[27]Fm3m
3150[2]451.1[9]4.2[7]
3250[7]450 @ 617 °C[25]
460[31]
420[7]100[7]
UC2520[9]163.682.6[36]1.98212.1[36]12.97 / {13.63}[9]15.6 - 17.06.9+-1.5[9]0.284[36]
220.7[9]9.5+-1.0[27]
VC2730[13]434[13]5.77[13]72.6 - 85.127.5 / 20.4 - 24.6 / 20.4 / 92 HRA[4]0.32 @ 552 °C[25]cubic fm3m[29]
2810 - 2865[4]421.7[9]5.36 - 5.81[4]B1 fcc[4]
2648[9]420 @ 552 °C[25]5.1[7]
2750[7]
V2C2200[28]{5.75}[9]
2187[9]5.8[7]
2150[7]
WC2800–2860[13]577[38]669[13]15.63[13]32.8 - 47.120 - 24[18]0.31 @ 347 °C[25]hex[18]
2600[18]720[18]15.7[18]21.6[9]hex[4]
2867+-50 / 2870 / 2900 / 2777 / 2867 / 2627[4]519 / 539.8 / 601.2 / 668.2 / 706.7[4]15.60 / 15.63 / 15.7 / {15.8}[4]17 / 23.5 / 18.3 / 18.4 / 92 HRA[4]Fm3m[2]
2780[20]730[20]15.7[20]hex[20]
2785[2]696.3[9]15.5 - 15.7 / {15.77}[9]
2777[7]700 @ 347 °C[25]15.7[7]
ZrC3400[13]223.1169.7[36]1.31359[13]6.73[13]28.3 - 83.825.5 / 27.8 - 34.1 / 21 / 20.5 / 92.5 HRA[4]0.197[36]B1 fcc[4]
3532+-125 / 3532 / 3530 / 3550 / 3540 / 3175[4]214.2124[9]1.31406.2[36]6.606[36]27.0[17]0.257[9]Fm3m[2]
3420[2]195.1 / 317.8 / 337.8 / 479.9[4]6.9 / {6.661. 6.73. 6.70. 6.44}[4]30+-3.0[27]
3420[20]390[20]6.6[20]cubic[20]
3400[17]550 @ 505 °C[25]6.56[17]fcc[17]
3525[7]348.1[9]6.8[7]
348[17]
408[7]60[7]
Oxides
Al2032045[13]264.5156.6[39]1.69379 @ 1090 °C[13]3.98[13]99.2 - 104.120.7[40]0.27[41]hex[18]
2046.7+-8[40]136.67165[34]0.83395.8[39]3.97[40]18 - 21[18]0.13 - 0.45[40]hex. cubic. monoclinic[40]
2050[20]251.2163.4[42]1.54410[20], [34]3.94[39]23.0[20]0.254[39]
124.55 - 347.36[40]3.99[20]0.23[34]
186.33 (single crystal)[40]
B2O3450[40]1.84[40]
BaO~ 1923[40]5.72[40]
BeO2527[13]464.29[20]3.29190 @ 1090 °C[13]3.01[13]122.8 - 129.67.8 / 10 / 12.3 / 14.9[40]0.36 - 0.38[40]hex[40]
2570+-30[40]95.91 - 100.03[40]372[39]3.03[40]
2570[20]141[39]390[20]3.01[20]
CaO2580[20]12074.05[43]1.62181[43]3.32[20]53.2 - 54.56.0[40]0.22[43]cubic[40]
2587[40]74.0[40]3.4[40]6.0+-0.8[27]0.22[40]
2614[7]218[42]
CeO22000[13]62.47[40]185[13]7.13[40]25.9
2397[40]7.13[13]
Ce2O32142+-30[40]10950.8[44]2.151326.9 - 7.0[40]18.9 - 19.1
2210
Co2O3894[40]5.18[40]
Cr2O32300[40]240[45]5.21[40]29.1[40]hex[40]
FeO1368[40]154[46]5.7[40]5.4[40]hex. cub.[40]
162.7[47]5.4+-0.5[27]fcc[46]
Fe2O31562[40]99.694.8[42]1.05261[48]6.51[40]40.110.8 / 5 - 6.8 / 6.8 - 10.9 / 9 / 9.9 / 9 - 10.4 / 3.5 - 3.8[40]hex. cub.[40]
HfO22810[7]9.68[7]
MgO2800+-13[40]156.4124.3[39]1.26317 @ 1090 °C[13]3.65[40]68.2 - 88.49.1 - 9.3 / 7.5 / 11.2[40]0.36[40]cubic[40]
2800[7]156.57130[34]1.20249.09[49]3.58[13]11.0+-1.5[27]
155130.1[42]1.193.585[49]
77.48 - 113.76[40]294.7[39]3.506[39]
2840[20]162.3[47]310[20], [34]3.58[7]0.17[34]
MgO22832[7]
MgAl2O32135[7]3.51[7]
MgV2O42050[7]
MnO1785[40]5.18[40]5.7[40]cubic[40]
5.7+-0.8[27]
MnO2847[40]34.45.026[40]tetra. rhom.[40]
NbO1937[7]
NbO21902[7]
Nb2O31772[40]134.1[50]
Nb2O51510[40]5.98[40]7.3[40]rhom.[40]
1512[7]
NiO1957[40]7.45[40]4.4[40]cubic[40]
Sc2O32405[40]3.864[40]cubic[40]
SiO21600–172537.0231.14[39]1.1973[13]2.66[13]27.4 - 33.10.17[40]hex - rhom - tetra - cub[40]
1720[40]36.98[13], [39]72.97[39]2.32 - 2.651[40]7.5 - 12.3[40]0.171[39]
1710[7]2.203[39]
2.32[7]
Sm2O3~ 2320[40]127.9953.1[39]2.41139[39]0.319[39]monoclinic[40]
Ta2O51877[40]179.1[50]8.73[40]20.5rhom.[40]
1785[7]
ThO23300[40]69.3498.07 (303 K)[40]0.71137.3[40]10[40]13.7 - 32.09.7 - 10.9[40]0.17[40]cubic[40]
3220[20]178.594.2[39]1.89240.4[39]9.722[39]
3390[7]240[20]10.05[20]0.275[39]
310.4[7]9.7[7]32[7]
TiO1737[40]270[37]4.93 - 5.53[40]19.6[40]0.28cubic[40]
16.0+-3.5[27]
TiO21855[40]210113.1[39]1.86272[39]3.84 - 4.24[40]64.2 - 70.86.0 - 10.7[40]tetra. rhom.[40]
1857[7]210.3113.5[42]1.854.24[39]
215.2113.54 (single crystal)[40]1.90
Ti2O32127[40]148.969.2[51]2.15179.8[51]5.02[51]35.80.299[51]cubic[51]
hex[40]
UO22760[40]192.9[39]10.5[40]17.6 - 18.67.7 - 8.2[40]0.302[39]cubic[40]
2800[20]16274.1[39]2.19162.8 - 245.18[40]10.37[39]
2875[7]10.97[20]
VO21545[40]4.4[4]monoclinic[40]
V2O32376[40]4.87[4]hex[40]
WO31470[40]7.16[4]tetra. monoclinic[40]
1470[7]
Y2032450[20]148.9+-369.2+-2[51]2.15179.8+-4.8[51]5.02[51]34.1 - 41.06.8[40]0.299[51]cubic[40]
135.766.5[39]2.04171.5[39]5.03[39]0.298[39]
141.5[39]180[20]4.5[20]
4.84[40]
ZnO1975[40]13444[39]3.05199+-2[40]21.2 - 35.91.5 - 3.1[40]0.351[39]tet - mono @ 1170 °C[52]
143.645.5[42]3.16119[39]hex[40]
45.5[40]
ZrO22690[40]137.6875[34]1.84190[34]5.56[40]30.3 - 35.416.6[40]0.27[34]monoclinic[40]
2700[7]77.9[39]197[39]6.27[40]cubic[40]
5.75[7]
Nitrides
AlN2300[20]159.9 - 207126.4[53]1.64350[20]3.25[20]90.5 - 110hex[20]
2375[7]350[9]3.2[54]
294.2 - 323.6 / 343.7[7]3.2[7]
352[7]110[7]
BC2N408445[11]0.92980[24]65.20.096[24][24]
BN2730[7]2.1[7]
c-BN2973400405[11]0.99909[24]3.45 - 3.48[33]261.2 - 263.548[11]0.121[55]cub (hex)[24]
405400[55]1.01909[55]61 (graph)[24]0.119[15]cubic [F 4 3 m][33]
376383.67[21]0.98[21]921[15]
415 (graph)405[24]1.02
hex-BN2.2[54]
CrN15.4+-0.5[9]
HfN3385[17]341.66 - 355.46[30]13.9[17]24.6-25.615.7[9]fcc[17]
3225[7]17.0+-2.0[27]
NbN2300[9]483.5[9]3.26[7]60 - 148.3cubic[9]
2330[7]195.6[7]
Si3N41900[13]290120[13]2.42295[34]3.18[13]66.7 - 92.815.5[18]0.29[34]hex[20]
1900[24]115[34]220[20]3.2[7]hex[18]
1900[7]3.2-3.3[54]
1900[20]3.2[20]
TaN2700[17]14.3[17]23.7[9]cubic[17]
3075[7]13.8 / {14.36}[9]
TiN2930[13]295212.23[21]1.39[21]600[13]5.44[13]46.2 - 115.421.0+-3.0[27]cubic[20]
2950[20]320[37]260[20]5.4[20]fcc[17]
2950[9]251.1[9]5.43 / {5.44}[9]
2950[17]445 - 472.06[30]5.39[17]
2900[7]5.2[7]
VN2050[9]6.040 / 6.102[6]15.5+-1.5[27]
2200[7]6[7]
ZrN2980[20]7.3[20]50[7]18.0+-2.0[27]cubic[20]
2980[9]7.29[17]fcc[17]
3950[17]
2950[7]
Intermetallics
Be12Ti1593[2]117128[56]0.91282[56]2.3[2]122.60.099[56]D2b tI26[56]
P6/mmm[2]
CoAl1635[56]162114[56]1.42278[56]5.2[80Sam]0.214[56]B2cP2[56]
CoSi21326[2]210.167.5[56]3.11182.9[56]4.94 / {4.95}[9]36.9 - 37.05.4[9]0.355[56]Fm3m[2]
1277[6]
CrSi21475[2]172153.3[56]1.12354.6[56]4.91[2]71.1 - 72.16.9[9]0.156[56]P6222[2]
1500 +-20[6]4.91 / {4.978}[9]
Fe3Al{6.648}[9]
FeAl261[56]5.585[9]46.7B2cP2[56]
MoSi22050[56]209.7191.1[56]1.103845.9 - 6.3 / {6.24}[6]60.3 - 71.512.95 - 15.2[6]0.151[56]tet[18], [56]
2030[20]380[20]6.2[20]6.9[9]tet[20]
2030[6]421.7[6]I4/mmm[2]
Ni3Al17377.3[56]2.24201.9[56]{7.293}[9]0.305[56][56]
Ni3Fe180.685.5[56]2.11221.4[56]0.296[56][56]
NiAl1638[56]16670[56]2.37184.1[56]5.8531.50.315[56][56]
TaSi2338[13]9.1[13]37.1 - 38.39.8 - 11.8[9]P6222[2]
9.1[2]
8.83 / {9.1}[9]
Ti3Sn97.541.9[56]2.33110[56]0.312[56][56]
TiAl11070[56]1.57173[56]3.84 / {3.63}[9]45.1 - 47.71.8[9]0.234[56]L10 tP4[56]
TiAl31375[56]105.693[56]1.14215.7[56]3.31 / {3.371}[9]64.0 - 65.26.7[9]0.16[56][56], [57]
TiCr21550[56]15971[56]2.24184[56]0.31[56]C14. hP12[56]
TiSi2148.9116.7[56]1.28277.8[56]4.39 / {4.13}[6]59.0 - 69.16.78[9]0.189[56]Fddd[6]
258.9[6]4.02 / {4.043}[9]
Ti5Si32150[7]4.2[7]
VSi2166 - 167.2142 - 147.9[56]1.12331 - 342.6[56]4.34 / {4.627}[9]71.5 - 78.98.7 - 9.4[9]0.158[56][56]
V5Si35.1[7]
WSi22180[7]222.4203.6[56]1.09467.9[56]9.25 / [9.857][9]47.5-50.610.5[9]0.149[56][56]
9.25[7]
YAl289.265.5[56]158[56]{3.933}[9]40.20.205[56]C15 cF24[56]
YFe29749.6[56]1.36127[56]C15 cF24[56]
ZrAl21645[56]11793.8[56]1.25222[56]4.42 / {4.561}[9]48.7 - 50.20.184[56]C14. HP12[56]
ZrAl31580[56]95.4 - 106.985.1 - 90.0[56]1.06201.8 - 205[56]4.11 / {4.098}[9]49.1-50.05.5[9]0.185[56][56]
Subject areaPhysical metallurgy, Material Science, Engineering
More specific subject areaMetal-matrix-composites
Type of dataTable
How data was acquiredLiterature survey
Data formatRaw, processed
Experimental factors
Experimental features
Data source location
Data accessibilityData are accessible in this article
  6 in total

1.  Crystal structure, phase stability, and electronic structure of Ti-Al intermetallics: TiAl3.

Authors: 
Journal:  Phys Rev B Condens Matter       Date:  1990-06-15

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Authors: 
Journal:  Phys Rev B Condens Matter       Date:  1996-02-01

3.  Theoretical study of electronic, magnetic, and structural properties of alpha -Fe2O3 (hematite).

Authors: 
Journal:  Phys Rev B Condens Matter       Date:  1995-03-15

4.  Systematic study on the electronic structure and mechanical properties of X2BC (X = Mo, Ti, V, Zr, Nb, Hf, Ta and W).

Authors:  H Bolvardi; J Emmerlich; M to Baben; D Music; J von Appen; R Dronskowski; J M Schneider
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Authors:  Miao Zhang; Mingchun Lu; Yonghui Du; Lili Gao; Cheng Lu; Hanyu Liu
Journal:  J Chem Phys       Date:  2014-05-07       Impact factor: 3.488

6.  Material Properties of Titanium Diboride.

Authors:  R G Munro
Journal:  J Res Natl Inst Stand Technol       Date:  2000-10-01
  6 in total
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Journal:  Adv Sci (Weinh)       Date:  2020-01-21       Impact factor: 16.806

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