Removal of strontium(II) and cobalt(II) from acidic solution by manganese antimonate

A microscopic and spectroscopic study of rapid antimonite sequestration by a poorly crystalline phyllomanganate: differences from passivated arsenite oxidation

“…A similar study reported by also conrmed that the formation of Mn(II) antimonate during reaction of Sb(III) with KMnO 4 . 52 The high ratio of Mn/Sb contributes to a poorly crystallized structure with low and broad diffraction peaks. In addition, a cubic morphology Mn(II) antimonate with a particle size of 50-150 nm was observed by TEM analysis, which is in accordance with the SEM observations in Fig.…”

“…Previous studies have suggested that Mn(II) antimonate can effectively adsorb a series of divalent metals including Sr(II), Co(II), Ca(II) and Ba(II). 52,54 In addition, Sb(V) was also released into the solution. This release was attributed to two causes.…”

Effect of nickel ion doping in MnO2/reduced graphene oxide nanocomposites for lithium adsorption and recovery from aqueous media

“…On the other hand, adsorption seems an efficient, inexpensive, and ecofriendly method. 17 Currently, manganese oxide (Mn x O y ) ion sieves have gained signicant focus for metal adsorption (Pb, Hg, Cu, and Sr) [18][19][20] because of their favorable characteristics, such as ecofriendliness, low cost, and high stability with tunable morphology. 21,22 But ne size prohibited their utilization in various elds due to slow aqueous-solid partitioning.…”

Zwitterionic-surfactant modified LAPONITE®s for removal of ions (Cs+, Sr2+ and Co2+) from aqueous solutions as a sustainable recovery method for radionuclides from aqueous wastes

“…4 With this aim, adsorption could represent a potential way to adsorb radioactive inorganic cations if the selected adsorbent presents both appropriate adsorption properties and reasonable costs. 5,6 Several materials and processes have been tested in order to adsorb radionuclides, such as zeolites, 7,8 oxides, 9 membranes, 10 or clay-based adsorbents. [11][12][13] Clay minerals are among the most abundant and cheapest materials, and they are especially recognized for the adsorption of cationic contaminants given their cation exchange capacity (CEC).…”