Maple wood biochar-supported nickel nanoparticles: One pot synthesis for simultaneous removal of cationic and anionic dye mixture

Arvind K. Bhakta , Lamia Znaidi , Esther Blanc , Nabil Challab , Philippe Decorse , Arlette Vega Gonzalez , Dominique Vrel , Souad Ammar , Swaminathan Prasanna
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Abstract

This work reports on a facile and efficient technique to synthesize nickel particles supported on maple wood biochar to form magnetic nanocomposite able to remove dyes like methyl orange (MO) and rhodamine B (RhB) from water. Methodology involves wet impregnation with aqueous nickel nitrate solution followed by a pyrolysis at 500 ºC. This resulted in homogeneously and uniformly distributed irregular shaped Ni particles in the size range of 16 – 68 nm on the biochar surface. X-ray diffraction characterization confirms the presence of Ni particles and X-ray photoelectron spectroscopy reveals their slight surface oxidation. Their ability to answer to a magnetic field has been confirmed by recording the variation of their magnetization as a function of the magnetic field at room temperature using a Vibrating Sample Magnetometer. The G Raman band of the biochar appeared to be less intense in the nanocomposite, compared to pristine biochar prepared as a reference, meaning Ni nanoparticles hinder carbonaceous graphitization during pyrolysis. This can be attributed to the porosity creation, as suggested by SEM observations. Ultimately, magnetic nanocomposites were successfully applied for the removal of RhB and MO from aqueous solutions. The adsorption capacity for the RhB is found to be 54.21 mg/g. Thanks to the magnetic properties of the engineered nanocomposites; they can be separated by a magnet and reused. Reusability test of adsorbent have shown 99.41 %, 74.58 %, and 49.78 %, adsorption efficiency after first, second and third cycles, respectively. This work opens up a future perspective to create filters for treating waste water coming from textile industries. This work well aligns with UN Sustainable Development Goals 6 (clean water and sanitation), 11 (sustainable cities and communities) and 13 (climate action).
本研究采用一种简便高效的技术,在枫木生物炭上合成镍颗粒,形成磁性纳米复合材料,能够去除水中的甲基橙(MO)和罗丹明 B(RhB)等染料。该方法包括用硝酸镍水溶液进行湿浸渍,然后在 500 ºC 下进行热解。这使得生物炭表面均匀分布着大小在 16 - 68 纳米之间的不规则镍颗粒。X 射线衍射表征证实了镍颗粒的存在,X 射线光电子能谱显示了它们轻微的表面氧化。通过使用振动样品磁力计记录它们在室温下的磁化率随磁场的变化,证实了它们对磁场的反应能力。与作为参照物制备的原始生物炭相比,纳米复合材料中生物炭的 G 拉曼带强度较低,这意味着镍纳米颗粒在热解过程中阻碍了碳质石墨化。这可归因于扫描电镜观察到的多孔性的产生。最终,磁性纳米复合材料成功地用于去除水溶液中的 RhB 和 MO。发现 RhB 的吸附容量为 54.21 mg/g。由于工程纳米复合材料具有磁性,因此可以用磁铁将其分离并重复使用。吸附剂的可重复使用性测试表明,经过第一、第二和第三次循环后,吸附效率分别为 99.41%、74.58% 和 49.78%。这项工作为制造用于处理纺织业废水的过滤器开辟了前景。这项工作非常符合联合国可持续发展目标 6(清洁水和卫生设施)、11(可持续城市和社区)和 13(气候行动)。
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