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Electrocrystallization. --- Électrocristallisation.

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“Electrocrystallization is a particular case of a first order phase transition” and “Electrocrystallization is a particular case of electrochemical kinetics” are two statements that I have heard and read many times. I do not like them for a simple reason: it is annoying to see that the subject to which you have devoted more than 30 years of your life may be considered as a “particular case”. Therefore, I decided to write this book in which Electrocrystallization is the main subject. To become competent in the field of Electrocrystallization one should possess knowledge of Electrochemistry, Nucleation and Crystal Growth, which means knowledge of Physical Chemistry, Physics and Mathematics. That is certainly difficult and in most cases those who study Electrocrystallization are either more electrochemists, or more physical chemists, or more physicists, very often depending on whom has been their teacher. Of course, there are scientists who consider themselves equally good in all those fields. Very frequently they are, unfortunately, equally bad. The difference is essential but strange enough, it is sometimes not easy to realize the truth immediately.

Crystal growth. --- Nucleation. --- Electrocrystallization. --- Crystal growth --- Nucleation --- Electrocrystallization --- Chemistry. --- Physical chemistry. --- Electrochemistry. --- Crystallography. --- Physical Chemistry. --- Chemistry, Physical organic. --- Crystallography and Scattering Methods. --- Leptology --- Physical sciences --- Mineralogy --- Chemistry, Theoretical --- Physical chemistry --- Theoretical chemistry --- Chemistry --- Chemistry, Physical and theoretical --- Crystals --- Crystallization --- Grain boundaries --- Twinning (Crystallography) --- Electrochemical crystallization --- Electrochemistry --- Growth

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This Special Issue is aimed at presenting the state of the art of the multidisciplinary science concerning all aspects of volcanic plumes, of relevance to the volcanology, climatology, atmospheric science, and remote sensing communities.

alginate --- gas diffusion method --- bubble-column scrubber --- X-ray diffraction --- phosphorylated chitin --- calcite --- calcium carbonate --- sedimentary model --- composite --- urease --- Amu Darya Basin --- sericin --- aragonite --- ammonia bicarbonate --- capture --- hydrogels --- bacterial extracellular secretion --- MICP --- carbonation --- SEM --- multi-wall carbon nanotubes --- micromechanics --- Lessonia nigrescens --- biomineralization --- Bacillus subtilis --- CO2 --- Sporosarcina pasteurii --- CaCO3 --- mass-transfer coefficient --- hierarchic structure --- main controlling factors --- carbon dioxide --- surface energy --- Callovian-Oxfordian --- contact angle --- potentiometric titration --- xanthan --- cement --- crystallization --- nacre --- reservoir --- electrocrystallization

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This book entitled “Protein Crystallization under the Presence of an Electric Field” covers recent trends and original contributions on the use of electric fields (internal and external) for applications for nucleation control and the effect on the kinetics of crystallization processes. This book also includes basic strategies for growing crystals of biological macromolecules for characterization via X-ray and neutron diffraction as well as using modern X-ray-free electron-lasers. There are six main topics covered on this book, including recent insights into the crystallization process from nucleation and growth peculiarities, when using different kinds of electric fields; the effect of external electric fields on the kinetics of the dislocation-free growth of model proteins; the use of very strong external electric fields for the crystallization of a model protein glucose isomerase; and the use of alternant electric fields using different kinds of pulses and their combination with strong magnetic fields. There are also contributions related to applications in developing electron-transfer devices as well as graphene-based platforms for electrocrystallization and in situ X-ray diffraction characterization.

porous silicon --- silanes --- microbatch method --- growth kinetics --- impact of electric fields on the protein crystallization --- cytochrome C nucleation and crystallization --- protein infiltration --- I–V characteristics --- electric fields --- number density --- protein crystallization --- protein crystals --- electron-transfer biomolecular devices --- external DC electric field --- classical and two-step nucleation mechanisms --- macromolecular crystallography --- in situ diffraction --- external and internal electric fields --- size and quality of protein crystals --- lysozyme --- magnetic fields --- electrical properties --- gel-growth --- crystal growth in solution --- electric field --- pulse-wave --- crystal quality --- crystallization --- serial crystallography --- microfluidics --- electrocrystallization