Shallow Shell SSTA63 resin: a rapid approach to remediation of hazardous nitrate

IF 3.5 4区 环境科学与生态学 Q3 ENGINEERING, ENVIRONMENTAL Environmental Science: Water Research & Technology Pub Date : 2024-08-26 DOI:10.1039/d4ew00584h
Elif Çendik, Mügenur Saygı, Yaşar Kemal Recepoğlu, Özgür Arar
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Abstract

This study examines the potential of Purolite Shallow Shell™ SSTA63 anion exchange resin for mitigating nitrate ion (NO3) contamination in aqueous environments. Through systematic experimentation, including dosage optimization, pH dependency, kinetic and desorption studies, we investigate the sorption behavior and practical applications of the resin. Results indicate that the resin effectively removes NO3 ions, with maximum efficiency achieved within 10 minutes. When 0.025 g of resin was used, 75% of NO3 was removed, whereas with 0.05 g, 89% was removed, and with 0.1 g of resin, 95% was removed. At pH 1, approximately 50% of NO3 ions were removed, with removal efficiency reaching 97% between pH 4 and 10. Sorption isotherms affirm the suitability of the Langmuir model for the current investigation. The monolayer maximum sorption capacity (qmax) value was found to be 53.65 mg g−1. The resin demonstrates robust desorption capabilities using 0.1 M hydrochloric acid (HCl), effectively desorbing NO3 above 99%, indicating easy NO3 desorption and resin regeneration. The presence of coexisting ions such as chloride (Cl), sulfate (SO42−), and phosphate (PO43−) showed a minimal impact on NO3 removal in individual binary mixtures, with efficiencies exceeding 93%, suggesting a strong selectivity of the resin towards NO3. Purolite SSTA63 anion exchange resin exhibited a high affinity for NO3 ions, even over other competing ions, despite the general trend of ion exchange resins to favor ions with a higher atomic number and valence. Overall, this resin presents a promising solution for NO3 removal, with implications for water treatment and environmental remediation.

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浅壳 SSTA63 树脂:快速修复有害硝酸盐的方法
本研究探讨了 Purolite Shallow Shell™ SSTA63 阴离子交换树脂在减轻水环境中硝酸根离子(NO3-)污染方面的潜力。通过系统的实验,包括剂量优化、pH 值依赖性、动力学和解吸研究,我们研究了该树脂的吸附行为和实际应用。结果表明,该树脂能有效去除 NO3- 离子,并在 10 分钟内达到最高效率。使用 0.025 克树脂时,可去除 75% 的 NO3-;使用 0.05 克树脂时,可去除 89%;使用 0.1 克树脂时,可去除 95%。在 pH 值为 1 时,可去除约 50% 的 NO3-离子,在 pH 值为 4 至 10 时,去除率达到 97%。吸附等温线证实了 Langmuir 模型适用于本次研究。单层最大吸附容量(qmax)值为 53.65 mg g-1。该树脂在使用 0.1 M 盐酸(HCl)时表现出强大的解吸能力,能有效解吸 99% 以上的 NO3-,这表明 NO3-易于解吸和树脂再生。在单个二元混合物中,氯离子(Cl-)、硫酸根离子(SO42-)和磷酸根离子(PO43-)等共存离子对去除 NO3- 的影响很小,效率超过 93%,这表明该树脂对 NO3- 具有很强的选择性。Purolite SSTA63 阴离子交换树脂对 NO3- 离子表现出很高的亲和力,甚至超过了其他竞争离子,尽管离子交换树脂一般倾向于原子序数和价数较高的离子。总之,这种树脂是一种很有前景的去除 NO3- 的解决方案,对水处理和环境修复具有重要意义。
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来源期刊
Environmental Science: Water Research & Technology
Environmental Science: Water Research & Technology ENGINEERING, ENVIRONMENTALENVIRONMENTAL SC-ENVIRONMENTAL SCIENCES
CiteScore
8.60
自引率
4.00%
发文量
206
期刊介绍: Environmental Science: Water Research & Technology seeks to showcase high quality research about fundamental science, innovative technologies, and management practices that promote sustainable water.
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