Periodic formation current self-organization in oxyhydrate environment | Vestnik Tomskogo gosudarstvennogo universiteta. Chimia – Tomsk State University Journal of Chemistry. 2016. № 1(3).

Periodic formation current self-organization in oxyhydrate environment

The gel samples of zirconium oxyhydrate a complicated system of motion (linear peremeschatelnogo and vibrational-rotational) of large macromolecular structures (microelectrophoresis) and the ion stream directed movement inside or around them. In addition to molecular conformational motion exists and translational movement of the gel macromolecules of a different nature. Therefore, it seems quite real occurrence of the potential difference on platinum electrodes and, therefore, the possibility of experimental micro-registration system in time. In this paper the mathematical model of the gel membranes based on the electrophoretic gel patterns. The data of the experiment (the measurement of spontaneous current induced polarized electric double layer gel (DES)), which suggest that this model is consistent with experiment. On the basis of experimental data and model calculations it is concluded that the static magnetic field changes the nature of the interaction of the gel fragments with each other, which affects the value of the current measured in the experiment. In addition, these dynamical systems are constantly evolving, as a result of development in oxyhydrate zirconium polymerization processes - destruction, spontaneous hydration, dehydration, involving molecular ion stream splashes. These properties are explained widespread batch processes in colloidal chemistry oxyhy-drate gel system (CRP), rare earth elements, and oxides, hydroxides some d-elements such as zirconium, niobium, titanium and others. The study of their assigned coherent chemistry, that is vibration-chemical batch processes. However, there are some difficulties: in the classical inorganic chemistry and colloidal chemistry development paradigm vibrational phenomena and processes developed and little understood. However, these phenomena are now allow for new insights into the crystallography of colloidal systems, explore the change in the form of colloidal clusters over time. The relevance of the work lies in the study of the initial stages offorming a gel that allows you to create a better understanding of the mechanism of formation of oxyhydrate gels of heavy metals. A clear understanding of the processes offormation of the elements structuring oxyhydrate gels of heavy metals in non-equilibrium conditions allows us to hope for a sorbent based oxihydrate sorbtsioinnymi with specified characteristics. The practical value lies in the development of techniques directed synthesis oxyhydrates heavy metals that have wide application in industry in the purification of natural and waste waters from heavy metal ions (Cu+, Zn+, Cd, Co, Ni, Mn) and the production of high samples. Of the inorganic sorbents are widely used hydroxides of aluminum, zirconium, manganese, iron, silica and others. Many hy-drated oxides of heavy metals are amphoteric and depending on the conditions may exhibit cation and anion exchange properties.

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Keywords

оксигидратные гелевые системы, коллоидные кластеры, самопроизвольный пульсационный поток, диффузный двойной электрический слой, топологический континуум, диссоциативно-диспропорциональный механизм, теория Уитни, геометрия каустик, oxyhydrate gel systems, colloidal clusters, spontaneous pulsating flow, diffuse electric double layer, geometry caustics, topological continuum, dissociative-disproportionate mechanism, Whitney theory

Authors

NameOrganizationE-mail
Sukharev Yuri I.Chelyabinsk State Universitysucharev74@mail.ru
Apalikova Inna Yu.Branch of the Military Training and Research Center of the Air ForceApal-inna@yandex.ru
Apalikov Vitaly O.South-Ural State Universityapalikov74ru@yandex.ru
Meshcheryakova Julia D.South-Ural State Universitymeshheryakovay@bk.ru
Leonova Olga V.South-Ural State Universitylov-62@mail.ru
Zasoba Igor А.Branch of the Military Training and Research Center of the Air Forcekoksl96@yandex.ru
Всего: 6

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 Periodic formation current self-organization in oxyhydrate environment | Vestnik Tomskogo gosudarstvennogo universiteta. Chimia – Tomsk State University Journal of Chemistry. 2016. № 1(3).

Periodic formation current self-organization in oxyhydrate environment | Vestnik Tomskogo gosudarstvennogo universiteta. Chimia – Tomsk State University Journal of Chemistry. 2016. № 1(3).

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