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    • 6. 发明授权
    • Two-terminal nanotube devices including a nanotube bridge and methods of making same
    • 包括纳米管桥的两端纳米管装置及其制造方法
    • US08134220B2
    • 2012-03-13
    • US12139910
    • 2008-06-16
    • H. Montgomery ManningThomas RueckesJonathan W. WardBrent M. Segal
    • H. Montgomery ManningThomas RueckesJonathan W. WardBrent M. Segal
    • G11C11/00H01L23/52H01L21/02
    • H01L51/0591B82Y10/00G11C13/025H01L51/0048Y10S977/943
    • Nanotube switching devices having nanotube bridges are disclosed. Two-terminal nanotube switches include conductive terminals extending up from a substrate and defining a void in the substrate. Nantoube articles are suspended over the void or form a bottom surface of a void. The nanotube articles are arranged to permanently contact at least a portion of the conductive terminals. An electrical stimulus circuit in communication with the conductive terminals is used to generate and apply selected waveforms to induce a change in resistance of the device between relatively high and low resistance values. Relatively high and relatively low resistance values correspond to states of the device. A single conductive terminal and a interconnect line may be used. The nanotube article may comprise a patterned region of nanotube fabric, having an active region with a relatively high or relatively low resistance value. Methods of making each device are disclosed.
    • 公开了具有纳米管桥的纳米管开关器件。 两端纳米管开关包括从衬底向上延伸并且在衬底中限定空隙的导电端子。 纳米管制品悬浮在空隙上或形成空隙的底部表面。 纳米管制品布置成永久地接触导电端子的至少一部分。 使用与导电端子连通的电刺激电路来产生并施加所选择的波形以引起器件在较高和较低电阻值之间的电阻变化。 相对较高且相对较低的电阻值对应于器件的状态。 可以使用单个导电端子和互连线。 纳米管制品可以包括具有相对较高或相对低的电阻值的有源区的纳米管织物的图案化区域。 公开了制造每个装置的方法。
    • 9. 发明申请
    • METHODS FOR PASSIVATING A CARBONIC NANOLAYER
    • 用于钝化碳纳米管的方法
    • US20110163290A1
    • 2011-07-07
    • US12910714
    • 2010-10-22
    • Thomas RueckesH. Montgomery ManningRahul Sen
    • Thomas RueckesH. Montgomery ManningRahul Sen
    • H01L29/06H01L21/56H01L21/20B82Y99/00B82Y40/00
    • B82Y30/00G11C2213/16H01L27/101
    • Methods for passivating a carbonic nanolayer (that is, material layers comprised of low dimensional carbon structures with delocalized electrons such as carbon nanotubes and nano-scopic graphene flecks) to prevent or otherwise limit the encroachment of another material layer are disclosed. In some embodiments, a sacrificial material is implanted within a porous carbonic nanolayer to fill in the voids within the porous carbonic nanolayer while one or more other material layers are applied over or alongside the carbonic nanolayer. Once the other material layers are in place, the sacrificial material is removed. In other embodiments, a non-sacrificial filler material (selected and deposited in such a way as to not impair the switching function of the carbonic nanolayer) is used to form a barrier layer within a carbonic nanolayer. In other embodiments, carbon structures are combined with and nanoscopic particles to limit the porosity of a carbonic nanolayer.
    • 公开了用于钝化碳纳米层(即,由具有诸如碳纳米管和纳米表面石墨烯斑点的离域电子的低维碳结构构成的材料层)以防止或以其它方式限制另一材料层的侵蚀的方法。 在一些实施方案中,将牺牲材料注入多孔碳纳米层​​内以填充多孔碳纳米层​​内的空隙,同时将一种或多种其它材料层涂覆在碳纳米层上或旁边。 一旦其它材料层就位,则去除牺牲材料。 在其它实施方案中,使用非牺牲填料(以不损害碳纳米层的切换功能的方式选择和沉积)在碳纳米层内形成阻挡层。 在其它实施方案中,碳结构与纳米级颗粒结合以限制碳纳米层的孔隙率。