Anthraquinone dyes like Alizarin Red S which used in many fields belong to the group of the most durable dyes. These dyes cannot be completely degraded by general chemical, physical and biological processes. This resistance to degradation is attributed to the complex structures of the aromatic rings that afford high physicochemical, thermal and optical stability. Therefore, most of the treatments for such dye-laden effluents are largely inadequate. With specific reference to Alizarin Red S, a review of literature over the last fifteen years has shown that the methods used to degrade this dye have scantily been directed to the use of adsorbents derived from more readily and low-cost materials. Only a few studies were found to have dealt with the sequestration of Alizarin Red S using non-biomass based adsorbents. Moriguchi et al. [19] elucidated of adsorption mechanism of bone-staining agent Alizarin Red S on hydroxyapatite by Fourier transform infrared spectroscopy microspectroscopy. Ghaedi et al. [20] used multiwalled carbon nanotubes as adsorbents for the kinetic and equilibrium study of the removal of Alizarin Red S. Li et al. [21] analyzed the adsorption voltammetry of the mix-polynuclear complex of zirconium–calcium–Alizarin Red S at a carbon paste electrode. Filho et al. [22] investigated the surface complexation of copper(II) with Alizarin Red S adsorbed on a graphite electrode. Kurepa et al. [23] worked on the uptake and distribution of ultrasmallanatase TiO2 Alizarin Red S nanoconjugates in Arabidopsis thaliana.