沸石咪唑酸酯框架改进铁酸钒:毒理学分析及其在某些选定抗生素的光降解中的应用

Adewale Adewuyi, Wuraola B. Akinbola, Chiagoziem A. Otuechere, Adedotun Adesina, Olaoluwa A. Ogunkunle, Olamide A. Olalekan, Sunday O. Ajibade and Olalere G. Adeyemi
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引用次数: 0

摘要

制备了沸石咪唑酸酯框架改进铁酸钒(VFe2O4@monoZIF-8),采用可见光驱动光催化工艺净化环丙沙星(CP)、氨苄西林(AP)和红霉素(EY)污染的水系统。此外,VFe2O4@monoZIF-8对Wistar大鼠的肝肾毒性进行了评估,以建立其毒性谱。通过扫描电镜(SEM)、x射线衍射(XRD)、傅里叶变换红外光谱(FTIR)、热重评价(TGA)、能量色散x射线微分析(EDX)和透射电镜(TEM)对VFe2O4@monoZIF-8进行了表征。XRD测定的VFe2O4@monoZIF-8晶粒尺寸为34.32 nm, TEM图像的平均粒径为162.32 nm。SEM图像中VFe2O4@monoZIF-8的表面是均匀的,具有六边形和不对称形状的颗粒。EDX结果证实了钒(V)、铁(Fe)、氧(O)、碳(C)和锌(Zn)是组成元素。带隙能量为2.18 eV。VFe2O4@monoZIF-8完全(100%)光降解所有抗生素(CP, AP和EY)。在第10次再生循环中,对CP的降解率为95.10±1.00%,对AP的降解率为98.60±1.00%,对EY的降解率为98.60±0.70%。VFe2O4@monoZIF-8所研究的大鼠血浆肌酸、尿素和尿酸水平没有明显变化,表明所研究的肾脏功能正常。此外,对血浆电解质、钠和钾水平无显著影响。与之前的研究相比,VFe2O4@monoZIF-8的光催化降解能力较好,对肝肾系统的毒性最小,这表明VFe2O4@monoZIF-8是一种潜在的抗生素污染水系统的净化资源。
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Zeolitic imidazolate framework improved vanadium ferrite: toxicological profile and its utility in the photodegradation of some selected antibiotics in aqueous solution

Zeolitic imidazolate framework improved vanadium ferrite (VFe2O4@monoZIF-8) was prepared to purify a ciprofloxacin (CP), ampicillin (AP), and erythromycin (EY) contaminated water system via a visible light driven photocatalytic process. Furthermore, VFe2O4@monoZIF-8 was evaluated for its hepato-renal toxicity in Wistar rats to establish its toxicity profile. Characterization of VFe2O4@monoZIF-8 was performed with scanning electron microscopy (SEM), X-ray diffractometry (XRD), Fourier-transform infrared spectroscopy (FTIR), thermogravimetry evaluation (TGA), energy-dispersive X-ray microanalysis (EDX), and transmission electron microscopy (TEM). The VFe2O4@monoZIF-8 crystallite size determined by XRD is 34.32 nm, while the average particle size from the TEM image is 162.32 nm. The surface of VFe2O4@monoZIF-8 as shown in the SEM image is homogeneous having hexagonal and asymmetrically shaped particles. EDX results confirmed vanadium (V), iron (Fe), oxygen (O), carbon (C) and zinc (Zn) as the constituent elements. The bandgap energy is 2.18 eV. VFe2O4@monoZIF-8 completely (100%) photodegraded all the antibiotics (CP, AP and EY). In the 10th regeneration cycle, the degradation efficiency for CP was 95.10 ± 1.00%, for AP it was 98.60 ± 1.00% and for EY it was 98.60 ± 0.70%. VFe2O4@monoZIF-8 exhibited no significant changes in the plasma creatine, urea and uric acid levels of rats studied, suggesting healthy function of the studied kidneys. Furthermore, there was no significant effect on plasma electrolyte, sodium and potassium levels. The photocatalytic degradation capacity of VFe2O4@monoZIF-8 compared favorably with previous studies with minimal toxicity to the hepato-renal system, which suggests VFe2O4@monoZIF-8 as a potential resource for decontaminating antibiotic polluted water systems.

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