Bhat Mahesh P, Jung Ho-Young, Losic Dusan, Kurkuri Mahaveer D
Centre for Nano and Material Sciences (CNMS), Jain University, Jain Global Campus, Bangalore-, 562112, India.
Dept. of Environmental Energy Engineering, Chonnam National University, Gwangju, 500-757, Republic of Korea.
Chemistry. 2016 Apr 25;22(18):6148-78. doi: 10.1002/chem.201504396. Epub 2016 Feb 17.
Computers have become smarter, smaller, and more efficient due to the downscaling of silicon-based components. Top-down miniaturisation of silicon-based computer components is fast reaching its limitations because of physical constraints and economical non-feasibility. Therefore, the possibility of a bottom-up approach that uses molecules to build nano-sized devices has been initiated. As a result, molecular logic gates based on chemical inputs and measurable optical outputs have captured significant attention very recently. In addition, it would be interesting if such molecular logic gates could be developed by making use of ion sensors, which can give significantly sensitive output information. This review provides a brief introduction to anion receptors, molecular logic gates, a comprehensive review on describing recent advances and progress on development of ion receptors for molecular logic gates, and a brief idea about the application of molecular logic gates.
由于硅基组件的尺寸缩小,计算机变得更智能、更小且更高效。由于物理限制和经济上的不可行性,硅基计算机组件的自上而下的小型化正迅速达到其极限。因此,已经开始探索使用分子构建纳米级器件的自下而上方法的可能性。结果,基于化学输入和可测量光学输出的分子逻辑门最近受到了极大关注。此外,如果能够利用离子传感器开发出这样的分子逻辑门,那将很有意思,因为离子传感器可以提供极其灵敏的输出信息。本综述简要介绍了阴离子受体、分子逻辑门,全面回顾了用于分子逻辑门的离子受体开发的最新进展,以及分子逻辑门的应用简介。