用于绝对RNA定量的超灵敏光学生物传感器——利用金探测癌症和神经系统疾病诊断的基因组稳定性

S. Shawky, A. A. Awad, Arwa A. Abugable, and Sherif F. EL-Khamisy
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引用次数: 2

摘要

纳米结构材料,如金属氧化物,可能是氧化铁(II, III),在生物医学、农业和环境科学等生命科学领域发挥着重要作用。铁(II, III)氧化物纳米颗粒(FeII,IIINPs)由于其独特的性能,如高表面积体积比、更好的溶解度、低毒性、表面裁剪能力、超顺磁性或磁性、更大的表面积、易于分离的方法、生物相容性和多用途,使其成为生物医学的强有力候选材料,是近年来纳米技术的创新材料。目前,FeII、IIINPs等磁性纳米颗粒(氧化铁)、金属氧化物纳米颗粒、纳米壳和纳米笼等已被不断地应用和改进,使其成为一种诊断和治疗剂。本文综述了氧化铁(II, III)纳米颗粒的化学性质、制备氧化铁NPs的方法、FeII, IIINPs的磁性、超顺磁性及其在生物医学中的应用,以及近年来在生物医学、商业和工业上的应用。采用物理、化学和生物等多种方法合成具有合适表面化学性质的磁性纳米粒子。这些方法具有特定的性能和条件来开发不同性质的纳米颗粒,如形状、平均尺寸、尺寸分布、结晶度、磁性、分散性和生物相容性。鉴于热分解法和共沉淀法的可靠性、便捷性和经济性,本文认为热分解法和共沉淀法具有较好的经济效益。化学共沉淀法作为一种方便、廉价的方法,有潜力满足日益增长的直接制备分散良好的(水基)Fe3O4纳米颗粒的需求。化学共沉淀法可以制备出精细、高纯度、化学计量颗粒的单组分和多组分金属氧化物合成技术。考虑到目前对铁(II, III)氧化物纳米颗粒的兴趣,本综述旨在报告FeII, IIINPs的合成,表征和应用的最新信息。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Ultrasensitive optical Biosensor for absolute RNA quantificationUsing Gold to Probe Genomic Stability for Cancer and Neurological Disorder Diagnosis
Nanostructured materials such as metallic oxides, possibly iron (II, III) oxide can play an important role in the fields of life sciences such as biomedicine, agriculture, and environment science. Iron (II, III) Oxide nanoparticles (FeII,IIINPs) an innovative material in recent nanotechnology due to their unique properties, such as like high surface area to volume ratio, bettered solubility, low toxicity, surface tailoring power, Superparamagnetism or magnetic properties, greater surface area, easy separation methodology, biocompatibility and multiple use making them strong candidate for biomedicine. Currently the interest of using FeII, IIINPs such as magnetic nanoparticles (iron oxide), metallic oxides nanoparticles, nanoshells, and nanocages have been continuously used and modified to enable their use as a diagnostic and therapeutic agent. This review summarizes and initiates the chemistry of Iron (II, III) Oxide nanoparticles related with the methods for the preparation of iron oxide NPs, magnetic properties, superparamagnetic nature of FeII, IIINPs and some role of their application in biomedicine with recent biomedical, profitable, and industrial applications. Several physical, chemical, and biological methods have been adopted to synthesize magnetic NPs with suitable surface chemistry. These methods possess specific performance and conditions to develop nanoparticles of different properties like shape, average size, size distribution, crystallinity, magnetic properties, dispersibility, and biocompatibility. Based on their reliability, convenient and cheap method, thermal decomposition and co-precipitation method were considered in this review as profit techniques. As one convenient and cheap method, chemical coprecipitation has the potential to meet the increasing demand for the direct preparation of well dispersed (water-base) Fe3O4 nanoparticles. Chemical co-precipitation can produce fine, high-purity, stoichiometric particles of single and multicomponent metal oxides synthesis techniques. Keeping in mind the current interest in iron (II, III) Oxides nanoparticles, this review is designed to report recent information from synthesis to characterization, and applications of FeII, IIINPs.
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