镍超蓄能器生物炭从水和废水中吸收镍(II),以产生增强的生物矿

IF 6.7 Q1 ENGINEERING, ENVIRONMENTAL
Rachel A. Smoak*,  and , Jerald L. Schnoor, 
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引用次数: 0

摘要

镍超积累植物在超积累植物物种中所占比例最大;然而,很少有以超积累生物为原料的生物炭研究对其进行了研究。这项研究提出了两个主要假设:(1)由生长在富含金属的天然土壤上的镍超积累植物铁齿藻合成的生物炭是一种有效的镍吸附剂,因为该植物能够生物积累可溶性和交换性阳离子;以及(2)这种生物炭可以从复杂溶液中吸收高浓度的Ni。我们发现,C.chacidica生长在明尼苏达州一个矿区的沙质、营养不良的土壤上,但不会超积累镍。在900°C的热解温度下,由C.chacitica生物质制备的生物炭从溶液中吸附了高达154 mg g–1的镍,这与最近文献中性能最高的镍吸附剂和任何未经修饰的镍吸附物中的最高的具有竞争力,文献中报道的植物基生物炭材料。沉淀、阳离子交换和吸附机制有助于去除。从初始pH>0.05的酸性溶液中有效地去除了Ni;在30分钟内2。O.chalcidica生物炭还从模拟的Ni电镀冲洗水溶液中去除了Ni(II)。总之,这些结果为O.chalcidica生物炭作为一种有吸引力的材料同时处理高镍废水和形成增强的镍生物提供了证据。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Nickel Hyperaccumulator Biochar Sorbs Ni(II) from Water and Wastewater to Create an Enhanced Bio-ore

Nickel Hyperaccumulator Biochar Sorbs Ni(II) from Water and Wastewater to Create an Enhanced Bio-ore

Nickel (Ni) hyperaccumulators make up the largest proportion of hyperaccumulator plant species; however, very few biochar studies with hyperaccumulator feedstock have examined them. This research addresses two major hypotheses: (1) Biochar synthesized from the Ni hyperaccumulator Odontarrhena chalcidica grown on natural, metal-rich soil is an effective Ni sorbent due to the plant’s ability to bioaccumulate soluble and exchangeable cations; and (2) such biochar can sorb high concentrations of Ni from complex solutions. We found that O. chalcidica grew on sandy, nutrient-poor soil from a Minnesota mining district but did not hyperaccumulate Ni. Biochar prepared from O. chalcidica biomass at a pyrolysis temperature of 900 °C sorbed up to 154 mg g–1 of Ni from solution, which is competitive with the highest-performing Ni sorbents in recent literature and the highest of any unmodified, plant-based biochar material reported in the literature. Precipitation, cation exchange, and adsorption mechanisms contributed to removal. Ni was effectively removed from acidic solutions with initial pH > 2 within 30 min. O. chalcidica biochar also removed Ni(II) from a simulated Ni electroplating rinsewater solution. Together, these results provide evidence for O. chalcidica biochar as an attractive material for simultaneously treating high-Ni wastewater and forming an enhanced Ni bio-ore.

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来源期刊
ACS Environmental Au
ACS Environmental Au 环境科学-
CiteScore
7.10
自引率
0.00%
发文量
0
期刊介绍: ACS Environmental Au is an open access journal which publishes experimental research and theoretical results in all aspects of environmental science and technology both pure and applied. Short letters comprehensive articles reviews and perspectives are welcome in the following areas:Alternative EnergyAnthropogenic Impacts on Atmosphere Soil or WaterBiogeochemical CyclingBiomass or Wastes as ResourcesContaminants in Aquatic and Terrestrial EnvironmentsEnvironmental Data ScienceEcotoxicology and Public HealthEnergy and ClimateEnvironmental Modeling Processes and Measurement Methods and TechnologiesEnvironmental Nanotechnology and BiotechnologyGreen ChemistryGreen Manufacturing and EngineeringRisk assessment Regulatory Frameworks and Life-Cycle AssessmentsTreatment and Resource Recovery and Waste Management
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