Creation of Nanorobots: Both State-of-the-Science and State-of-the-Art

P. Hassanzadeh, F. Atyabi, R. Dinarvand
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引用次数: 18

Abstract

Over the last decade, remarkable achievements in nanofabrication technology has led to the development of hybrid intelligent systems including the nanomechanical devices powered by the chemical energy sources or biomolecular motors. In this context, nanorobotics has emerged as a highly-advanced technology for designing the fully functional smart devices or robots at nano scale. Development of these highly-controlled and functional nanostructures for sensing, information processing, signaling, and actuation may provide remarkable breakthroughs in medicine such as the improved imaging or targeted therapeutic interventions. Besides the detection and destroying the toxic materials and ecosystem restoration, the stimuli-responsive nanorobots may be used for the diagnosis or treatment of cardiac disorders, traumatic injuries, diabetes, and bacterial or viral infections. These molecular tools with nanoscale resolution facilitates early diagnosis in cancer and precise localization of anticancer agents leading to the minimal side effects. Nanorobots may easily traverse the human body and repair the cells or assist an improper functioning organ. These tiny devices integrated with wireless locomotion, external or internal power supply, artificial intelligence, and smart sensors may also be used for targeted delivery of genes or drugs into the single cells or tissues, tele-operation, or patient monitoring. Indeed, development of the medical nanorobots with a wide range of capabilities is a proof of concept and art in modern science and a breakthrough in nanotechnology which has been highlighted in the present manuscript.
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纳米机器人的创造:最新的科学和最先进的技术
在过去的十年中,纳米制造技术取得了显著的成就,导致了混合智能系统的发展,包括由化学能源或生物分子马达驱动的纳米机械装置。在这种背景下,纳米机器人技术作为一种高度先进的技术,在纳米尺度上设计出功能齐全的智能设备或机器人。这些用于传感、信息处理、信号和驱动的高度可控和功能性纳米结构的发展可能会在医学上取得重大突破,如改善成像或靶向治疗干预。除了检测和破坏有毒物质和恢复生态系统外,刺激反应纳米机器人还可用于心脏疾病、创伤性损伤、糖尿病、细菌或病毒感染的诊断或治疗。这些具有纳米级分辨率的分子工具有助于癌症的早期诊断和抗癌药物的精确定位,从而将副作用降到最低。纳米机器人可以很容易地穿越人体,修复细胞或辅助功能不正常的器官。这些微型设备集成了无线运动、外部或内部电源、人工智能和智能传感器,也可用于将基因或药物靶向递送到单个细胞或组织、远程操作或患者监测。事实上,具有广泛功能的医疗纳米机器人的发展是现代科学中概念和艺术的证明,也是纳米技术的突破,这在本手稿中得到了强调。
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