The dissolution forms of YIG single crystal spheres

Береги, Э.; Sterk, E.; Tanos, F.; Hartmann, E.; Lábár, János L.

doi:10.1016/0022-0248(83)90103-3

Cited by 17 publications

(2 citation statements)

References 7 publications

Supporting

Mentioning

Contrasting

Order By: Relevance

“…Tellier and co-workers , obtained the analytical expressions of the dissolution slowness surfaces, which are the polar plots of dissolution time, for cubic crystals using the tensorial approach to the orientation-dependent etching process. One of the common observations by these researchers is that the dissolving crystal takes faceted morphology which can be determined from the extrema of the polar plots of dissolution rates and are also confirmed by the experiments. , …”

Section: Introductionmentioning

confidence: 52%

“…One of the common observations by these researchers is that the dissolving crystal takes faceted morphology which can be determined from the extrema of the polar plots of dissolution rates and are also confirmed by the experiments. 17,18 Doherty and co-workers 19−21 studied the dynamics of crystal morphology under small subsaturations. Their algorithm considers a finite number of faces that belongs to three categories such as (i) faces already present on crystal, (ii) F-faces, and (iii) the faces that are on vertices and edges formed by F-faces.…”

Section: Introductionmentioning

confidence: 99%

See 1 more Smart Citation

Measurement of Polar Plots of Crystal Dissolution Rates Using Hot-Stage Microscopy. Some Further Insights into Dissolution Morphologies

Singh

Nere

Tung

et al. 2014

Crystal Growth & Design

View full text Add to dashboard Cite

Polar plots are the representations of anisotropic surface properties such as surface energies and growth rates of crystalline materials. The steady-state morphologies of growing crystals are usually obtained from Wulff constructions on the polar plots of growth rates, whereas the morphologies of dissolving crystals are known to have no steady states. Here we show that the dissolving crystal can attain steady-state morphologies under certain conditions. The Wulff construction on the polar plots of dissolution time (or slowness) can be used to identify such steady-state morphologies. It is shown that the dissolving crystal can attain faceted morphology composed of fast dissolving faces. The evolution of dissolving crystals toward faceted morphology involves disappearance of slow-dissolving faces, which also causes vanishing of curvatures from the crystal surface. This article presents a method to experimentally determine polar plots from the dynamic images of crystals obtained from hot-stage microscopy. The method relies on the solution of the characteristics for crystal dissolution. The methodology is demonstrated to obtain polar plots of succinic acid at different subsaturations.

show abstract