Synthesis, ion exchange properties and analytical applications of stannic silicomolybdate: Effect of temperature on distribution coefficients of metal ions

A new electron exchange material Ti(IV) iodovanadate: Synthesis, characterization and analytical applications

“…The ions with smaller hydrated radii easily enter the pores of exchange material, resulting in higher adsorption [23]. The similar results were observed in the case of Zr(IV) iodovanadate, stannic(IV) selenosilicate, stannic(IV) silicomolybdate and stannic(IV) selenoiodate [14,22,24]. The material can be regenerated by keeping it in 1.0 M nitric acid and used over and over again.…”

“…This sequence is in accordance with the hydrated ionic radii. The ion exchange capacity should increase with decreasing hydrated radii and increases with electrode potential [22]. The ions with smaller hydrated radii easily enter the pores of exchange material, resulting in higher adsorption [23].…”

Kinetic aspects and swelling changes of magnesium and cerium titano-antimonates in aqueous and mixed solvents

“…In 2003, Möller et al [10] synthesized an extensive series of titanium antimonates in various Ti:Sb ratios and it was found that the acidity of the exchangers was increased with increasing Sb 5+ content. The 134 Cs, 85 Sr, and 57 Co distribution coefficient (K d ) values determined in 0.1 M HNO 3 proved that this expectation is correct [10].…”

“…In the last years, the continuous request of materials with improved properties stimulated researchers to develop new classes of inorganic materials for applications, which usual organic macromolecules fail in. In this regard, the double metal salts prepared by in situ precipitation processes have received remarkable attention [1][2][3][4][5]. It has been observed that double salts often exhibit much better ion exchange properties than simple salts [1][2][3][4][5].…”

Synthesis and Characterization of Cerium(IV) Arsenomolybdate Cationic Exchanger

“…Similarly a large number of three component ion exchangers like stannic(IV) silicomolybdate [11], zirconium(IV) selenomolybdate, titanium(IV) tungstoarsenate [12] and zirconium(IV) iodotunagstate [13] have been reported.…”