A. E. Mubark, Samar E. Abd-El Razek, A. Eliwa, S. M. El-Gamasy
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引用次数: 0
摘要
摘要以磺胺嘧啶类药物(SD)为吸附剂,采用廉价的工艺制备了磺胺嘧啶席夫碱(SDSB)。使用不同的技术对SDSB进行了化学和物理表征。在pH 5.0时,改性SD对Y(III)离子的最大静态吸附容量为0.9 mmol−1。动力学结果表明,Y(III)离子在合成的SDSB上的吸附遵循伪二阶,R2>0.999。Temkin、Dubinin–Radushkevich、Freundlich和Langmuir模型准确地描述了吸附等温线数据。吸附的活化能(Ea)为17.52kJmol−1,表明该过程为化学吸附。ΔHo为11.33 kJmol−1,ΔSo为110.2 Jmol−1K−1时的热力学特性。用FT-IR和EDAX分析证实了钇在SDSB上的吸附。使用1 M HNO3,并且在连续五个循环后从95%降低到70%。使用预浓缩因子约为10的SDSB吸附剂实现了废溶液中存在的钇离子的预浓缩过程。因此,它被认为是一种在各种工业应用中很有前途的Y(III)离子吸附剂。
Investigation on the Sulfadiazine Schiff Base Adsorption Ability of Y(III) Ions from Nitrate Solutions, Kinetics, and Thermodynamic Studies
ABSTRACT Sulfadiazine Schiff base (SDSB) was prepared using an inexpensive technique by modification of sulfadiazine drug (SD) to be used as an adsorbent material for recovery of Y(III) ions from aqueous solutions. Chemical and physical characterizations of SDSB were performed using different techniques. The maximum static adsorption capacity of the modified SD was 0.9 mmolg−1 for Y(III) ions and at pH 5.0. The kinetics results revealed that the sorption of Y(III) ions upon the synthesized SDSB followed the pseudo-second-order with R2 of >0.999. Temkin, Dubinin – Radushkevich, Freundlich, and Langmuir models accurately described the adsorption isotherm data. The activation energy (Ea) for adsorption was 17.52 kJmol−1, indicating the process is to be chemisorption. Thermodynamic characteristics with ΔHo of 11.33 kJmol−1 and a ΔSo 110.2 Jmol−1K−1. Using FT-IR and EDAX analysis proved the yttrium adsorption upon the SDSB. The desorption process for Y(III) ions was successfully achieved using 1 M HNO3 and it reduced from 95% to 70% after five consecutive cycles. A pre-concentration process for yttrium ions presented in a waste solution was achieved using SDSB adsorbent with a pre-concentration factor of about 10. As a result, it is regarded as a promising adsorbent for Y(III) ions in a variety of industrial applications.
期刊介绍:
Solvent Extraction and Ion Exchange is an international journal that publishes original research papers, reviews, and notes that address all aspects of solvent extraction, ion exchange, and closely related methods involving, for example, liquid membranes, extraction chromatography, supercritical fluids, ionic liquids, microfluidics, and adsorption. We welcome submissions that look at: The underlying principles in solvent extraction and ion exchange; Solvent extraction and ion exchange process development; New materials or reagents, their syntheses and properties; Computational methods of molecular design and simulation; Advances in equipment, fluid dynamics, and engineering; Interfacial phenomena, kinetics, and coalescence; Spectroscopic and diffraction analysis of structure and dynamics; Host-guest chemistry, ion receptors, and molecular recognition.