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    • 9. 发明授权
    • Controlled fabrication of gaps in electrically conducting structures
    • 控制导电结构间隙的制造
    • US07582490B2
    • 2009-09-01
    • US10767102
    • 2004-01-29
    • Jene A. GolovchenkoGregor M. SchürmannGavin M. KingDaniel Branton
    • Jene A. GolovchenkoGregor M. SchürmannGavin M. KingDaniel Branton
    • H01L21/00C23C14/00G01N35/08G01N35/00H01L29/78
    • G01N33/48721Y10T436/11Y10T436/12
    • A method for controlling a gap in an electrically conducting solid state structure provided with a gap. The structure is exposed to a fabrication process environment conditions of which are selected to alter an extent of the gap. During exposure of the structure to the process environment, a voltage bias is applied across the gap. Electron tunneling current across the gap is measured during the process environment exposure and the process environment is controlled during process environment exposure based on tunneling current measurement. A method for controlling the gap between electrically conducting electrodes provided on a support structure. Each electrode has an electrode tip separated from other electrode tips by a gap. The electrodes are exposed to a flux of ions causing transport of material of the electrodes to corresponding electrode tips, locally adding material of the electrodes to electrode tips in the gap.
    • 一种用于控制具有间隙的导电固态结构中的间隙的方法。 该结构暴露于制造工艺环境条件,其条件被选择以改变间隙的程度。 在将结构暴露于工艺环境中时,跨越间隙施加电压偏置。 在工艺环境暴露期间测量跨越间隙的电子隧道电流,并且基于隧道电流测量在工艺环境暴露期间控制工艺环境。 一种用于控制设置在支撑结构上的导电电极之间的间隙的方法。 每个电极具有通过间隙与其它电极尖端分离的电极头。 电极暴露于离子通量,导致电极的材料传输到相应的电极尖端,将电极的材料局部地添加到间隙中的电极尖端。
    • 10. 发明申请
    • Nanometric Material Having a Nanopore Enabling High-Sensitivity Molecular Detection and Analysis
    • 具有纳米孔的纳米材料实现高灵敏度分子检测和分析
    • US20120234679A1
    • 2012-09-20
    • US13419383
    • 2012-03-13
    • Slaven GarajJene A. GolovchenkoDaniel Branton
    • Slaven GarajJene A. GolovchenkoDaniel Branton
    • G01N27/447G01N27/453B82Y5/00B82Y30/00B82Y99/00
    • There is provided a substantially bare, self-supported single-layer graphene membrane including a nanopore extending through a thickness of the graphene membrane from a first to a second membrane surface opposite the first graphene membrane surface. A connection from the first graphene membrane surface to a first reservoir provides, at the first graphene membrane surface, a species in an ionic solution to the nanopore, and a connection from the second graphene membrane surface to a second reservoir is provided to collect the species and ionic solution after translocation of the species and ionic solution through the nanopore from the first graphene membrane surface to the second graphene membrane surface. An electrical circuit is connected on opposite sides of the nanopore to measure flow of ionic current through the nanopore in the graphene membrane.
    • 提供了基本上裸露的自支撑单层石墨烯膜,其包括从第一至第二膜表面延伸穿过石墨烯膜的厚度的纳米孔,所述第一膜表面与第一石墨烯膜表面相对。 从第一石墨烯膜表面到第一储存器的连接在第一石墨烯膜表面处提供离子溶液中的物质到纳米孔,并且提供从第二石墨烯膜表面到第二储存器的连接以收集物种 和离子溶液在物种和离子溶液通过纳米孔从第一石墨烯膜表面转移到第二石墨烯膜表面之后。 电路连接在纳米孔的相对侧,以测量通过石墨烯膜中的纳米孔的离子电流的流动。