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Current status and future trends of nanoscale technology and its impact on modern computing, biology, medicine and agricultural biotechnology

机译:纳米级技术的现状和未来趋势及其对现代计算,生物学,医学和农业生物技术的影响

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Nanoscale technologies have gone from being just an ambitious concept to being a rapidly advancing area of interdisciplinary science with immense practical importance. Feynman's vision on nanoscience provided great impetus to the development of nanophysics, nanochemistry, nanoelectronics and nanotechnology in general [1]. High resolution microscopic devices such as scanning tunneling microscope, transmission electron microscope and atomic force microscope etc. in mid-1980s allowed researchers to see individual atoms on surfaces and arrange them at will [2, 3]. The authors (nanobiologists, computer scientists, biotechnologists and material scientists) will attempt to provide a review of the state of the art in the field of nanoscale technologies and its impact on various fields of research like computation, basic biology, medicine and agricultural biotechnology. Imprints of memory mechanisms [3] in living systems operating at different levels (e.g. biochemical, immunological and neuronal) has provided inputs to design and fabricate 'bio-inspired' nanoelectronic devices suitable for various applications. Several examples of such nanoscale technology based frameworks and devices will be presented in the scenario of their potential role in the development of future nanoscale technologies. Nanoscale technologies might finally revolutionize computational intelligence and thinking. The power and limits of computing processes govern the intelligence, knowledge acquisition and thinking process of human and machine. Present computational methods and models provide us courage to study the problem, but these tools are not yet sufficient to answer the following riddles of machine intelligence-What can computers do better than humans? What can humans do better than computers? And the most important one- what is computable? The authors will try to present evidences that will show bio-inspired nanoscale technologies might gain the power in helping us to go deeper into these challenges of research in future.
机译:纳米尺度技术已经不仅仅是一个雄心勃勃的概念,成为跨学科科学的迅速推进领域,具有巨大的实际重要性。 Feynman对NanoScience的愿景为纳米物理学,纳米学,纳米电子和纳米技术的发展提供了极大的推动[1]。高分辨率显微镜装置,如扫描隧道显微镜,透射电子显微镜和原子力显微镜等。在20世纪80年代中期,允许研究人员在表面上看到单个原子并将其安排在将[2,3]展开。作者(纳米学家,计算机科学家,生物技术学家和材料科学家)将试图对纳米级技术领域的领域以及对计算,基础生物学,医学和农业生物技术等各种研究领域的影响提供审查。在不同级别操作的生物系统中记忆机制[3]的印记(例如生物化学,免疫和神经元)提供了设计和制造适用于各种应用的“生物启发”纳米电子器件的输入。在未来纳米级技术开发中的潜在作用的情况下,将介绍这种基于纳米级技术的框架和设备的几个例子。纳米级技术可能最终彻底改变计算智能和思维。计算流程的力量和限制管理人员和机器的智能,知识获取和思维过程。目前的计算方法和模型为我们提供了研究问题的勇气,但这些工具尚未足以回答以下机器智能的谜语 - 哪些计算机可以比人类更好?人类可以比计算机做得更好吗?最重要的是 - 可计算是什么?作者将举试,展示能够展示生物启发的纳米级技术可能会在帮助我们深入了解未来研究的挑战方面的能力。

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