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Intermetallic

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German type metal is described as breaking like glass, not bending, softer than copper but more fusible than lead. The chemical formula does not agree with the one above; however, the properties match with an intermetallic compound or an alloy of one.
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by alloying with other elements to increase grain boundary cohesion. Alloying of other materials such as boron to improve grain boundary cohesion can improve ductility in many intermetallics. They often offer a compromise between
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Intermetallic compounds are generally brittle at room temperature and have high melting points. Cleavage or intergranular fracture modes are typical of intermetallics due to limited independent
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systems required for plastic deformation. However, there are some examples of intermetallics with ductile fracture modes such as Nb–15Al–40Ti. Other intermetallics can exhibit improved
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solid phases containing two or more metallic elements, with optionally one or more non-metallic elements, whose crystal structure differs from that of the other constituents
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intermetallic compound has equal numbers of atoms of two metals such as aluminium and iron, arranged as two interpenetrating simple cubic lattices of the component metals.
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The Penny Cyclopædia of the Society for the Diffusion of Useful Knowledge By Society for the Diffusion of Useful Knowledge (Great Britain), George Long Published 1843
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between two or more metallic elements. Intermetallics are generally hard and brittle, with good high-temperature mechanical properties. They can be classified as
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are excluded under this definition. However, interstitial intermetallic compounds are included, as are alloys of intermetallic compounds with a metal.
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devices. The management of intermetallics is a major issue in the reliability of solder joints between electronic components.
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has argued that it gives misleading intuition, suggesting a fixed stoichiometry and even a clear decomposition into
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and metallic properties when hardness and/or resistance to high temperatures is important enough to sacrifice some
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Although the term "intermetallic compounds", as it applies to solid phases, has been in use for many years,
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Panel On Intermetallic Alloy Development, Commission On Engineering And Technical Systems (1997).
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The term intermetallic is used to describe compounds involving two or more metals such as the
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Askeland, Donald R.; Wright, Wendelin J. (January 2015). "11-2 Intermetallic Compounds".
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often form during solidification of metallic alloys, and can be used as a
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applications, while the latter is also used in very small quantities for
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and chemical properties, due to their strong internal order and mixed (
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Gerhard Sauthoff: Intermetallics, Wiley-VCH, Weinheim 1995, 165 pages
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The formation of intermetallics can cause problems. For example,
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G. E. R. Schulze: Metallphysik, Akademie-Verlag, Berlin 1967
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Soboyejo, W. O. (2003). "12.5 Fracture of Intermetallics".
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Intermetallic alloy development : a program evaluation
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and ease of processing. They can also display desirable
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Examples of intermetallics through history include:
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Metallization Theory and Practice for VLSI and ULSI
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Index

Intermetallics

metallic
alloy
compound
stoichiometric
Hume-Rothery
species
Hume-Rothery
Laves phases
Frank–Kasper phases
Nowotny phases
Zintl phases
post-transition metals
aluminium
gallium
indium
thallium
tin
lead
bismuth
metalloids
silicon
germanium
arsenic
antimony
tellurium
solid solutions
interstitial compounds
carbides

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