Controlled assembly of nanosilver particles inside bacterial cell scaffold

Lili Sun, Deyuan Zhang, Jun Cai
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Abstract

We present a straightforward technique to fabricate helical particles embedded with nanosilver particles aggregation using Spirulina platensis as scaffold, during which the nanosilver particles were controllably synthesized inside the biotemplate by the electroless deposition technique. The TEM of the as-prepared micro particles showed that nanosilver particles were universally distributed inside the biotemplate. The size of the intracellular nanosilver particles can be adjusted by controlling the reaction time. Helical particles prepared using this method are stable in deionized water. The intracellular synthesis mechanism of silver nanoparticles was analyzed. This technique can be generalized to other microorganism templates and different deposition materials that can be synthesized by electroless deposition technique. And the achieved highly-ordered nano particle aggregations have promising applications in various fields, such as nanocatalyst, wastewater treatment, biomedicine and anti-microbial materials.
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纳米银粒子在细菌细胞支架内的受控组装
本研究提出了一种以螺旋藻为支架制备纳米银粒子聚集的螺旋状粒子的简单方法,并通过化学沉积技术在生物模板内可控地合成纳米银粒子。纳米银粒子的透射电镜结果表明,纳米银粒子在生物模板内普遍分布。通过控制反应时间,可以调节细胞内纳米银颗粒的大小。用这种方法制备的螺旋粒子在去离子水中稳定。分析了纳米银在细胞内的合成机理。该技术可推广到化学沉积技术可合成的其他微生物模板和不同的沉积材料。所获得的高有序纳米粒子聚集体在纳米催化剂、废水处理、生物医药和抗菌材料等领域具有广阔的应用前景。
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