Engineering Crystal Properties through Solid Solutions
Author(s) -
Matteo Lusi
Publication year - 2018
Publication title -
crystal growth and design
Language(s) - English
Resource type - Journals
eISSN - 1528-7505
pISSN - 1528-7483
DOI - 10.1021/acs.cgd.7b01643
Subject(s) - crystal engineering , supramolecular chemistry , materials science , crystal (programming language) , rational design , stoichiometry , crystal structure , solid solution , scope (computer science) , component (thermodynamics) , nanotechnology , crystallography , chemistry , computer science , thermodynamics , physics , metallurgy , programming language
The control of structures and properties in crystalline materials has many returns that justify the increasing efforts in this direction. Traditionally, crystal engineering focused on the rational design of single component molecular crystals or supramolecular compounds (i.e., cocrystals). More recently, reports on crystalline solid solutions have become common in crystal engineering research. Crystalline solid solutions are characterized by a structural disorder that enables the variation of stoichiometry in continuum. Often such variation corresponds to a variation of structural and physicochemical properties, and offers an opportunity for the materials’ fine-tuning. In some cases, though, new and unexpected properties emerge. As illustrated here, both behaviors make solid solutions particularly relevant to the scope of crystal engineering.
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