Synthesis, growth and characterization of an organometallic complex tri-allylthiourea cadmium bromide single crystals

Crystal growth, structural perfection, phase transition, optical, and etching studies of doped glycine phosphite ferroelectric single crystals

“…In LGPI, the scattered intensity was much more in the negative direction in comparison with the positive direction which was the reason for the asymmetry nature of the obtained diffraction curve. This feature clearly indicates that the crystal contains predominantly vacancy type of defects than interstitial defects [16]. The lattice around these defects undergoes tensile stress and the lattice parameter 'd' (interplanar spacing) increases which leads to more scattered intensity.…”

Synthesis, crystalline perfection, optical and dielectric studies on metal–organic tri-allylthiourea cadmium chloride (ATCC) nonlinear optical single crystal by solution growth technique

“…Crystal plane (À1 0 1 1) of ATCC, without any pit or crack or scratch on the surface was used for the refractive index measurements. The working of the measurement system was explained in our previous publication [11]. Fig.…”

“…Before recording the diffraction curve, the non-crystallized solute atoms remained on the surface of the crystal was removed and also the surface planarity was ensured. The specimen was first lapped and chemically etched in a non-preferential etchant of water and acetone mixture in 1:2 volume ratios and the working of the measurement system was reported previously by the authors [11]. The recorded diffraction curve for ATCC was shown in Fig.…”

Growth, hyperpolarizability, characterization and theoretical studies of NLO active tris(allylthiourea)mercury(II) chloride

“…Crystal growth, structure, characterization and nonlinear optical properties of some metal allylthiourea complexes have been reported [9][10][11][12][13][14][15][16][17][18][19]. Tris(allylthiourea)mercury(II) bromide is a new organometallic nonlinear optical material and its powder second harmonic generation efficiency is >2.5 times that of urea [20].…”