Automated scanning probe lithography with n-alkanethiol self assembled monolayers on Au(111): Application for teaching undergraduate laboratories.

Treva T Brown, Zorabel M Lejeune, Kai Liu, Sean Hardin, Jie-Ren Li, Kresimir Rupnik, Jayne C Garno
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Abstract

Controllers for scanning probe instruments can be programmed for automated lithography to generate desired surface arrangements of nanopatterns of organic thin films, such as n-alkanethiol self-assembled monolayers (SAMs). In this report, atomic force microscopy (AFM) methods of lithography known as nanoshaving and nanografting are used to write nanopatterns within organic thin films. Commercial instruments provide software to control the length, direction, speed, and applied force of the scanning motion of the tip. For nanoshaving, higher forces are applied to an AFM tip to selectively remove regions of the matrix monolayer, exposing bare areas of the gold substrate. Nanografting is accomplished by force-induced displacement of molecules of a matrix SAM, followed immediately by the surface self-assembly of n-alkanethiol molecules from solution. Advancements in AFM automation enable rapid protocols for nanolithography, which can be accomplished within the tight time restraints of undergraduate laboratories. Example experiments with scanning probe lithography (SPL) will be described in this report that were accomplished by undergraduate students during laboratory course activities and research internships in the chemistry department of Louisiana State University. Students were introduced to principles of surface analysis and gained "hands-on" experience with nanoscale chemistry.

金(111)上正烷硫醇自组装单分子层的自动扫描探针光刻:在本科教学实验室中的应用。
扫描探针仪器的控制器可以编程用于自动光刻,以生成所需的有机薄膜纳米图案的表面排列,例如正烷硫醇自组装单层(sam)。在本报告中,原子力显微镜(AFM)的光刻方法被称为纳米剃须和纳米接枝,用于在有机薄膜中写入纳米图案。商用仪器提供软件来控制长度、方向、速度和尖端扫描运动的作用力。对于纳米剃须,在AFM尖端施加更高的力以选择性地去除基体单层的区域,露出金衬底的裸露区域。纳米接枝是通过力诱导基质SAM分子的位移来完成的,紧接着是溶液中正烷硫醇分子的表面自组装。AFM自动化的进步使纳米光刻的快速协议能够在本科实验室的严格时间限制内完成。本报告将描述由路易斯安那州立大学化学系本科生在实验课程活动和研究实习期间完成的扫描探针光刻(SPL)的示例实验。向学生们介绍了表面分析的原理,并获得了纳米级化学的“动手”经验。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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