Phyco-biosynthesis of Chlorella-CuO-NPs and its Immobilization on Polyester/Cotton Blended Textile Waste Activated by Cellulase Enzymes for Application as Wastewater Disinfection Filter

Hassan Abdel-Gawad, I. Matter, Mohamed I. Abo-Alkasem, Naser G. Al- Balakocy, O. Darwesh
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Abstract

The accumulation of textile wastes, without use, leads to many environmental and economic problems, so they must be recycled and given "smart" properties to be useful in many applied fields. Immobilization of nanoparticles, particularly biosynthesized one, on textile surfaces may provide additional bioactive capabilities, such as antimicrobial and photoprotection due to its distinct properties. Therefore, in this study, CuO-NPs were biosynthesized by Chlorella microalga and immobilized on the surface of Polyester/Cotton (PET/C) blended textile waste modified using cellulase enzymes. Phyco-biosynthesized Chlorella -CuO-NPs were characterized using SEM-EDAX, HRTEM, XRD, FTIR, and whose particles were approximately spherical and nano-sized (<10 nm) and capped with organic compounds of biological origin. Both Chlorella - CuO-NPs and cellulase-modified PET/C textiles loaded with Chlorella -CuO-NPs exhibited antimicrobial activity and UV protection. The modified fabric was applied as a nano-biofilter to reduce the microbial load in wastewater to disinfect it from different pathogens e.g. total coliform bacteria, E. coli and Salmonella (efficiency exceeding 97, 98 and 99.4%, respectively). Recycling textile waste using microbial nanotechnology is an environmentally friendly and cost-effective way to develop smart fabrics for various industrial and applications in the environment.
小球藻-CuO-NPs 的植物生物合成及其在纤维素酶活化的聚酯/棉混合纺织废料上的固定化,可用作废水消毒过滤器
纺织品废弃物的累积和闲置会导致许多环境和经济问题,因此必须对其进行回收利用,并赋予其 "智能 "特性,使其在许多应用领域发挥作用。将纳米粒子,尤其是生物合成的纳米粒子固定在纺织品表面,可提供额外的生物活性功能,如抗菌和光保护。因此,在本研究中,小球藻微藻生物合成了 CuO-NPs,并将其固定在使用纤维素酶改性的聚酯/棉(PET/C)混合纺织废料表面。利用 SEM-EDAX、HRTEM、XRD 和 FTIR 对小球藻生物合成的 Chlorella -CuO-NPs 进行了表征,其颗粒近似球形,尺寸为纳米级(<10 nm),并以生物来源的有机化合物封盖。负载了小球藻-CuO-NPs 的小球藻-CuO-NPs 和纤维素酶改性 PET/C 纺织品都具有抗菌活性和防紫外线功能。改性织物被用作纳米生物过滤器,以减少废水中的微生物负荷,对不同病原体(如总大肠菌群、大肠杆菌和沙门氏菌)进行消毒(效率分别超过 97%、98% 和 99.4%)。利用微生物纳米技术回收纺织废料是一种既环保又具有成本效益的方法,可开发用于各种工业和环境应用的智能织物。
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