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Published on: October 25, 2017
Computational modeling of transport in synthetic nanotubes
Tamsyn A Hilder1, Dan Gordon, Shin-Ho Chung
1Computational Biophysics Group, Research School of Biology, Australian National University, Canberra, Australia. tamsyn.hilder@anu.edu.au
Abstract:
Synthetic nanotubes that have the ability to broadly mimic the function of biological ion channels have extraordinary potential for various applications, from ultrasensitive biosensors to efficient water purification devices. As a result of their immense potential, the design and fabrication of such synthetic nanotubes is rapidly gaining momentum. We briefly review recent theoretical and experimental studies on nanoscale cylindrical hollow tubes constructed from carbon, boron, and nitrogen atoms that are able to selectively transport water molecules, cations (positively charged ions), or anions (negatively charged ions) similar to various biological ion channels.
From The Clinical Editor:
This review discusses the current status of synthetic nanotube research, including recent theoretical and experimental studies on nanoscale cylindrical hollow tubes constructed from carbon, boron, and nitrogen atoms that are able to selectively transport water molecules, cations or anions similar to biological ion channels.
