Nanotechnology and Nanoparticles in Contemporary Sciences

Rc Jagessar
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Abstract

Nonotechanology has been a rapidly growing field of advanced science at the inception of this century. Many problematic endeavours in sciences have been successfully overcome using nanoparticles. For example, a low risk solution using antibody modified bismuth nanoparticle, in combination with an X-ray dose equivalent to a chest X-ray specifically, has been shown to kill the common bacterium Pseudomonas aeruginosa in a set up designed to resemble a deep wound in human tissue. Nanosized gold particle could catalyse the oxidation of carbon monoxide better than anything previously known. Heparin functionalized nanoparticles have been use for targeted delivery of anti-malarial drugs. Heparin is abundant and cheap compared to treatments that involve antibodies, an important consideration, since malaria is most common in developing countries. A bone repairing nano-particle paste has been developed that promises faster repair of fractures and breakages. DNA containing two growth genes is encapsulated inside synthetic calcium phosphate nanoparticles. In a remarkable demonstration of the extreme limits of nanoscale engineering, researchers have used the tip of a scanning tunnelling microscope to cleave and form selected chemical bonds in a complex molecule. Many medicinal and industrial endeavours have seen the use of Nanotechnology. These and other more recent advances in nanotechnology will be presented at this conference
当代科学中的纳米技术和纳米颗粒
在本世纪初,非技术已成为一个迅速发展的先进科学领域。利用纳米粒子已经成功地克服了科学中许多有问题的努力。例如,一种使用抗体修饰的铋纳米粒子的低风险溶液,与x射线剂量相结合,特别是相当于胸部x射线,已经被证明可以杀死常见的铜绿假单胞菌,这种装置设计成类似于人体组织中的深伤口。纳米级的金粒子催化一氧化碳氧化的效果比任何已知的都好。肝素功能化纳米颗粒已被用于靶向递送抗疟疾药物。与涉及抗体的治疗方法相比,肝素丰富且便宜,这是一个重要的考虑因素,因为疟疾在发展中国家最为常见。一种骨修复纳米颗粒浆料已经开发出来,有望更快地修复骨折和破损。含有两个生长基因的DNA被包裹在合成磷酸钙纳米颗粒中。研究人员利用扫描隧道显微镜的尖端,在一个复杂的分子中切割并形成选定的化学键,这是纳米工程极限的一个显著展示。许多医药和工业领域都使用了纳米技术。这些和其他纳米技术的最新进展将在本次会议上介绍
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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