将柱孢假单胞菌用作去除重金属和产生生物电的生物催化剂的潜力

Rojas-Flores Segundo, M. De La Cruz-Noriega, L. Cabanillas-Chirinos, Nélida Milly Otiniano, Nancy Soto-Deza, W. Rojas-Villacorta, Mayra De La Cruz-Cerquin
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摘要

目前,各种形式的工业对人类至关重要,因为它提供了生活所需的服务和物品。然而,这一过程也会污染土壤和河流。这项研究提供了一种环保解决方案,既能产生电能,又能对灌溉农民庄稼的河水中的砷、铁和铜等重金属进行生物修复。这项研究使用单室微生物燃料电池,分别以活性炭和锌电极为阳极和阴极,以受采矿废料污染的农民灌溉水为基质。由于假单胞菌能够在 4 至 44 °C(灌溉河水流入大海的温度)之间增殖,因此被用作生物催化剂,在第六天产生的电流和电压峰值分别为 4.35 mA 和 0.91 V,运行时的电导率为 222 mS/cm,pH 值为 6.74。同样,氮、总有机碳、点火失碳、溶解有机碳和化学需氧量的参数也分别降低了 51.19%、79.92%、64.95%、79.89%、79.93% 和 86.46%。同时,铁、铜和砷的值分别减少了 84.625%、14.533% 和 90.831%。显示的内阻值为 26.355 ± 4.528 Ω,功率密度为 422.054 mW/cm2,电流密度为 5.766 A/cm2。这项研究为社会、政府和私营公司提供了一个经济且易于扩展的原型,能够同时产生电能和去除重金属。
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The Potential Use of Pseudomonas stutzeri as a Biocatalyst for the Removal of Heavy Metals and the Generation of Bioelectricity
Currently, industry in all its forms is vital for the human population because it provides the services and goods necessary to live. However, this process also pollutes soils and rivers. This research provides an environmentally friendly solution for the generation of electrical energy and the bioremediation of heavy metals such as arsenic, iron, and copper present in river waters used to irrigate farmers’ crops. This research used single-chamber microbial fuel cells with activated carbon and zinc electrodes as anodes and cathodes, respectively, and farmers’ irrigation water contaminated with mining waste as substrate. Pseudomonas stutzeri was used as a biocatalyst due to its ability to proliferate at temperatures between 4 and 44 °C—at which the waters that feed irrigated rivers pass on their way to the sea—managing to generate peaks of electric current and voltage of 4.35 mA and 0.91 V on the sixth day, which operated with an electrical conductivity of 222 mS/cm and a pH of 6.74. Likewise, the parameters of nitrogen, total organic carbon, carbon lost on the ignition, dissolved organic carbon, and chemical oxygen demand were reduced by 51.19%, 79.92%, 64.95%, 79.89%, 79.93%, and 86.46%. At the same time, iron, copper, and arsenic values decreased by 84.625, 14.533, and 90.831%, respectively. The internal resistance values shown were 26.355 ± 4.528 Ω with a power density of 422.054 mW/cm2 with a current density of 5.766 A/cm2. This research gives society, governments, and private companies an economical and easily scalable prototype capable of simultaneously generating electrical energy and removing heavy metals.
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