Rectification of Ion Current Determined by the Nanopore Geometry: Experiments and Modelling

We provide a way to precisely control the geometry of a SiNx nanopore by adjusting the applied electric pulse. The pore is generated by applying the current pulse across a SiNx membrane, which is immersed in potassium chloride solution. We can generate single conical and cylindrical pores with diffe...

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Veröffentlicht in:中国物理快报:英文版 2016-10 (10), p.158-162
1. Verfasser: 周大明 邓云生 应翠凤 张月川 冯艳晓 黄绮梦 梁丽媛 王德强
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creator 周大明 邓云生 应翠凤 张月川 冯艳晓 黄绮梦 梁丽媛 王德强
description We provide a way to precisely control the geometry of a SiNx nanopore by adjusting the applied electric pulse. The pore is generated by applying the current pulse across a SiNx membrane, which is immersed in potassium chloride solution. We can generate single conical and cylindrical pores with different electric pulses. A theoretical model based on the Poisson and Nernst-Planck equations is employed to simulate the ion transport properties in the channel. In turn, we can analyze pore geometries by fitting the experimental current-voltage (I-V) curves. for the conical pores with a pore size of 0.5-2nm in diameter, the slope angles are around -2.5% to -10%. Moreover, the pore orifice can be enlarged slightly by additional repeating pulses. The conic pore lumen becomes close to a cylindrical channel, resulting in a symmetry I-V transport under positive and negative biases. A qualitative understanding of these effects will help us to prepare useful solid-nanopores as demanded.
doi_str_mv 10.1088/0256-307X/33/10/108501
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subjects 几何形状
离子电流整流
纳米孔
title Rectification of Ion Current Determined by the Nanopore Geometry: Experiments and Modelling
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