Journal of Applied Crystallography · 2011 · 92 citations · 18 references
Natural SciencesMaterials EngineeringMaterials ScienceCrystal StructureMaterials ChemistrySolid-state ChemistryCrystal ChemistryCrystal GrowthCrystalline MaterialsCrystallization ProcessesCrystallographyX-ray DiffractionCrystal DopingCrystal PerfectionFerroelectric CrystalsFerroelectric Single CrystalsGrain BoundariesHigh-resolution X-ray DiffractionInterstitial DefectsPoint Defects
Good quality and optically transparent single crystals of pure and doped glycine phosphite (GPI) were grown by both solvent-evaporation and temperature-cooling techniques. Dopants were chosen in different categories, namely transition metals (Cr, Mn, Co, Ni, Zn, Mg, Cd), rare-earth metals (Ce, Nd, La), dyes (rhodamine B, malachite green, fluorescein) and an amino acid (L-proline). The concentration of dopants was chosen depending on the category of dopants and the quality of crystallization during the growth process. The crystalline perfection of the as-grown pure and doped GPI crystals was investigated by high-resolution X-ray diffraction at room temperature. A multicrystal X-ray diffractometer employing a well collimated and highly monochromated Mo K α 1 beam and set in the (+, −, −, +) configuration was employed. Most of the crystal specimens show excellent crystalline perfection. However, grain boundaries, low-angle tilt boundaries, and vacancy and interstitial point defects were observed in some crystal specimens.
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Dynamical Diffraction of X Rays by Perfect Crystals
B. W. Batterman, H. Cole · Reviews of Modern Physics · 1964 · 1.4K citations
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G. Bhagavannarayana, S. Parthiban, Subbiah Meenakshisundaram · Crystal Growth & Design · 2007 · 193 citations