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    • 2. 发明授权
    • Field emission devices employing diamond particle emitters
    • 使用金刚石颗粒发射体的场致发射器件
    • US5977697A
    • 1999-11-02
    • US6347
    • 1998-01-13
    • Sungho JinGregory Peter KochanskiWei Zhu
    • Sungho JinGregory Peter KochanskiWei Zhu
    • H01J31/12H01J1/304H01J9/02H01J23/06H01J29/04H01J1/30
    • H01J23/06H01J1/3042H01J9/025H01J2201/30403H01J2201/30457H01J61/0677H01J61/0737
    • Improved diamond particle emitters, useful for flat panel displays, are fabricated by suspending nanometer-sized ultra-fine particles in a solution, applying the suspension as a coating onto a conducting substrate such as n-type Si or metal, subjecting the coated substrate to a plasma of hydrogen, and applying a thin, conformal diamond overcoating layer onto the particles. The resulting emitters show excellent emission properties, such as extremely low turn-on voltage, good uniformity and high current densities. In particular, the electron emitters are capable of producing electron emission current densities of at least 0.1 mA/,mm.sup.2 at extremely low vacuum electric fields of 0.2-3.0 V/.mu.m V/.mu.m. These field values are about an order of magnitude lower than exhibited by the best defective CVD diamond and almost two orders of magnitude lower than p-type semiconducting diamond. It is further found that the emission characteristics remain the same even after the plasma treated diamond surface is exposed to air for several months.
    • 用于平板显示器的改进的金刚石颗粒发射器通过将纳米尺寸的超细颗粒悬浮在溶液中来制造,将悬浮液作为涂层施涂到诸如n型Si或金属的导电基材上,使经涂覆的基材 氢的等离子体,并将薄的保形金刚石外涂层施加到颗粒上。 所得到的发射体显示出优异的发射特性,例如极低的导通电压,良好的均匀性和高的电流密度。 特别地,电子发射体在0.2-3.0V / m V /μm的极低真空电场下能够产生至少0.1mA / mm2的电子发射电流密度。 这些场值比由最好的有缺陷的CVD金刚石显示的低一个数量级,比p型半导体金刚石低两个数量级。 进一步发现即使在等离子体处理的金刚石表面暴露于空气几个月之后,发射特性也保持不变。
    • 6. 发明授权
    • Field emitting device comprising field-concentrating nanoconductor assembly and method for making the same
    • 场致发射器件包括场集中纳米电导体组件及其制造方法
    • US06538367B1
    • 2003-03-25
    • US09369802
    • 1999-08-06
    • Kyung Moon ChoiSungho JinGregory Peter KochanskiWei Zhu
    • Kyung Moon ChoiSungho JinGregory Peter KochanskiWei Zhu
    • H01J102
    • H01J1/304B82Y10/00H01J9/025H01J23/04H01J2201/30469H01J2225/38Y10S977/939
    • This invention is predicated on applicants' discovery that a highly oriented nanoconductor structure alone does not guarantee efficient field emission. To the contrary, the conventional densely populated, highly oriented structures actually yield relatively poor field emission characteristics. Applicants have determined that the individual nanoconductors in conventional assemblies are so closely spaced that they shield each other from effective field concentration at the ends, thus diminishing the driving force for efficient electron emission. In accordance with the invention, an improved field emitting nanoconductors assembly (a “low density nanoconductor assembly”) comprises an array of nanoconductors which are highly aligned but spaced from each other no closer than 10% of the height of the nanoconductors. In this way, the field strength at the ends will be at least 50% of the maximal field concentration possible. Several ways of making the optimally low density assemblies are described along with several devices employing the assemblies.
    • 本发明基于申请人的发现,即单独的高度取向的纳米结构结构不能保证有效的场发射。 相反,传统的人口稠密,高度取向的结构实际上产生相对较差的场致发射特性。 申请人已经确定,常规组件中的单个纳米电感器如此紧密地间隔开,使得它们彼此屏蔽在端部处的有效场浓度,从而减少了有效电子发射的驱动力。根据本发明,改进的场发射纳米结构器件组件 “低密度纳米导体组件”)包括高度对准但彼此间隔不超过纳米电感器高度的10%的纳米电感器阵列。 以这种方式,末端的场强将是可能的最大场浓度的至少50%。 使用几种使用组件的装置来描述制造最佳低密度组件的几种方式。
    • 8. 发明授权
    • Article comprising aligned nanowires
    • 文章包括对齐的纳米线
    • US06741019B1
    • 2004-05-25
    • US09420157
    • 1999-10-18
    • Robert William FilasSungho JinGregory Peter KochanskiWei Zhu
    • Robert William FilasSungho JinGregory Peter KochanskiWei Zhu
    • H01J130
    • H01J9/025B82Y10/00H01J1/304H01J2201/30469H01J2223/04Y10S977/762
    • An improved process for fabricating emitter structures from nanowires, wherein the nanowires are coated with a magnetic material to allow useful alignment of the wires in the emitter array, and techniques are utilized to provide desirable protrusion of the aligned nanowires in the final structure. In one embodiment, nanowires at least partially coated by a magnetic material are provided, the nanowires having an average length of about 0.1 &mgr;m to about 10,000 &mgr;m. The nanowires are mixed in a liquid medium, and a magnetic field is applied to align the nanowires. The liquid medium is provided with a precursor material capable of consolidation into a solid matrix, e.g., conductive particles or a metal salt, the matrix securing the nanowires in an aligned orientation. A portion of the aligned nanowires are exposed, e.g., by etching a surface portion of the matrix material, to provide desirable nanowire tip protrusion.
    • 一种用于从纳米线制造发射体结构的改进方法,其中纳米线被涂覆有磁性材料,以允许发射器阵列中的线的有用对准,并且利用技术在最终结构中提供对准的纳米线所需的突出。 在一个实施例中,提供至少部分地由磁性材料涂覆的纳米线,所述纳米线具有约0.1μm至约10,000μm的平均长度。 纳米线在液体介质中混合,施加磁场以对准纳米线。 液体介质设置有能够固结成固体基质例如导电颗粒或金属盐的前体材料,该基质将纳米线固定在一个排列的取向上。 对准的纳米线的一部分例如通过蚀刻基质材料的表面部分而暴露,以提供所需的纳米线尖端突起。