首页> 外文会议>Alternative Lithographic Technologies conference >Biomolecular Architectures and Systems for Nanoscience Engineering
【24h】

Biomolecular Architectures and Systems for Nanoscience Engineering

机译:纳米科学工程的生物分子架构和系统

获取原文

摘要

Despite the great potential of nanomaterials in electronic and photonic applications, their incorporation into functional devices will require the combination of top-down lithographic large-area patterning with the high resolution and chemical precision afforded by bottom-up self-assembly. Despite the wealth of existing lithography techniques, there remain significant hurdles to addressing below the 20nm regime. In light of these challenges, there have been significant efforts to use "bottom-up" or self-assembly approaches for patterning. One key, "manufacturable" approach has been to merge self-assembling systems with substrates patterned using conventional lithographic techniques. This paper will show our recent efforts in directing the placement of single stranded DNA and DNA templates on several different substrates that have been patterned by lithography. A variety of substrates have been generated by optical and e-beam lithography and these have been used to produce highly parallel arrays of mesoscale DNA scaffolds and DNA oligonucleotides in a single step. Furthermore, these DNA templates encode multiple nanometer recognition sites that can be further used to generate hierarchical assemblies of both organic and inorganic nanoscale materials. Because a significant challenge of future nanotechnology is the ability to address sub-20nm features, these self-assembled DNA arrays are being explored as potential templates for the assembly and wiring of nanoscale materials for both logic and memory.
机译:尽管电子和光子应用中的纳米材料的潜力很大,但它们的功能装置将需要具有高分辨率和化学精度的自上而下光刻大面积图案化的组合,并通过自下而上的自组装提供了高分辨率和化学精度。尽管现有的光刻技术有丰富,但在20nm制度下面仍然存在重大障碍。鉴于这些挑战,有很大的努力来使用“自下而上”或自动装配方法进行图案化。一个钥匙,“可制造”方法已经合并了使用常规光刻技术图案化的基板的自组装系统。本文将展示我们最近的努力,指导单链DNA和DNA模板的局部在光刻图案化的几种不同的基材上。通过光学和电子束光刻产生了各种基板,并且已经用于在单一步骤中产生高度平行的Mescleale DNA支架和DNA寡核苷酸阵列。此外,这些DNA模板编码多个纳米识别位点,该位点可以进一步用于产生有机和无机纳米级材料的分层组件。由于未来纳米技术的重大挑战是解决子20nm特征的能力,因此这些自组装的DNA阵列正在探索为逻辑和存储器的纳米级材料的组装和布线的潜在模板。

著录项

相似文献

  • 外文文献
  • 中文文献
  • 专利
获取原文

客服邮箱:kefu@zhangqiaokeyan.com

京公网安备:11010802029741号 ICP备案号:京ICP备15016152号-6 六维联合信息科技 (北京) 有限公司©版权所有
  • 客服微信

  • 服务号