Ciprofloxacin properties, impacts, and remediation

P. Gauba, Arushi Saxena
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Abstract

The discovery of antibiotics has led to a major development in providing treatment for different types of bacterial infections. Among the numerous types of antimicrobial agents used, fluoroquinolones have shown potential activity against various harmful pathogens, which cause various kinds of infections pertaining to skin, urinary tract, respiratory tract, gastrointestinal tract as well as sexually transmitted diseases (STDs). Among all classes of fluoroquinolones, ciprofloxacin is the most used and shows broad-spectrum activity against both gram-positive and gram-negative bacteria. The pharmacokinetic profile is higher in comparison with other antibiotics. It inhibits DNA replication and transcription. Although the use of ciprofloxacin has helped in decreasing the death rate, its increased usage has caused escalated contamination in soil and water. This has severely affected humans, plants, animals, and microbes. As ciprofloxacin does not immediately biodegrade, therefore, it can easily be found in soil and water sources. The toxicity of ciprofloxacin causes the development of resistance and the generation of reactive oxygen species and oxidative stress among living organisms. It also impacts the reproductive system of fishes and amphibians and plant physiology. In order to remediate the antibiotics from the environment a recent technique, phytoremediation has attracted researchers, which may provide a method for the removal of antibiotics. The present review focuses on the physical and pharmacokinetics properties of ciprofloxacin, its action mechanism, its toxicological effects, effect on microbial community, and various other living organisms along with a discussion of remediation of ciprofloxacin.
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环丙沙星的性质、影响和补救措施
抗生素的发现在治疗不同类型的细菌感染方面取得了重大进展。在使用的多种抗菌剂中,氟喹诺酮类药物已显示出对各种有害病原体的潜在活性,这些病原体可引起与皮肤、泌尿道、呼吸道、胃肠道以及性传播疾病有关的各种感染。在所有种类的氟喹诺酮类药物中,环丙沙星使用最多,对革兰氏阳性和革兰氏阴性细菌均有广谱活性。与其他抗生素相比,其药代动力学特征较高。它抑制DNA复制和转录。虽然环丙沙星的使用有助于降低死亡率,但其使用量的增加导致土壤和水的污染加剧。这严重影响了人类、植物、动物和微生物。由于环丙沙星不能立即生物降解,因此很容易在土壤和水源中发现它。环丙沙星的毒性使生物体产生耐药性,产生活性氧和氧化应激。它还影响鱼类和两栖动物的生殖系统和植物生理。植物修复技术作为一项新兴技术,为环境中抗生素的去除提供了一种新的途径。本文综述了环丙沙星的物理和药代动力学特性、作用机制、毒理学效应、对微生物群落的影响以及环丙沙星的修复技术。
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