Magnetic (Zn-St)10Fe0n (n=1,2,3,4) framework of macro-mesoporous biomaterial prepared via green enzymatic reactive extrusion for dye pollutants removal.

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ID: 64193
2019
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Abstract
Bio-based materials have the potential to be developed into green multifunctional products to replace their chemosynthetic counterparts, which have environmental and economic concerns. However, designing magnetic and porous biomaterials without pore spaces being occupied by exogenous magnets via traditional encapsulation, load, and/or deposition methods remains challenging. This paper describes a novel, facile, top-down strategy of fabricating zero-valent iron particles (Fe0 Ps) embedded into a three dimensional (3D) zinc-modified starch (Zn-St) framework using the enzymatic reactive extrusion (eREX) method. Raw St underwent Zn-atom fortification, in situ Fe-atom deposition, and micromixing extrusion to produce (Zn-St)10Fe0n (n=1,2,3,4) extrudates (Es) in a continuous and large-scale mode. A hierarchical porous structure was formed during eREX processing, with mesopores (~2-4 nm) and macropores (~50-300 nm and ~5-100 μm) generated regularly. The (Zn-St)10Fe0n Es were excellent at dye adsorption and magnetic separation, with high levels of St (>70%) as a biodegradable resource. For instance, (Zn-St)10Fe02 Es (St>83%) removed 61.03 mg/g of methylene blue (~19 times higher than that of raw St) at 298K and pH 4.0 via simultaneous physisorption and degradation and were successfully separated due to their saturation magnetization (Ms) value of 25.41 emu/g. The dye adsorption rate and Ms of the (Zn-St)10Fe0n Es can be increased by manipulating the amount of Fe0 Ps. Thus, the novel 3D (Zn-St)10Fe0n Es are promising biomaterials for water purification applications, as well as other food, biological, and environmental fields.
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xu2019magneticacs Use this key to autocite in the manuscript while using SciMatic Manuscript Manager or Thesis Manager
Authors Xu, Enbo;Wu, Zhengzong;Ding, Tian;Ye, Xingqian;Jin, Zhengyu;Liu, Donghong;
Journal ACS applied materials & interfaces
Year 2019
DOI
10.1021/acsami.9b14750
URL
Keywords
crack propagation haversian canals human cortical bone collagen cross-links osteocytes lacunae paired anatomical locations synchrotron micro-computed tomography

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