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    • 4. 发明授权
    • Nanotube-based vacuum devices
    • 基于纳米管的真空装置
    • US07176478B2
    • 2007-02-13
    • US10764168
    • 2004-01-26
    • Alexander KastalskySergey Shokhor
    • Alexander KastalskySergey Shokhor
    • H01L29/03
    • B82Y10/00H01J19/24H01J21/04H01J21/105H01J2201/30469Y10S977/876Y10S977/936Y10S977/938
    • New, hybrid vacuum electron devices are proposed, in which the electrons are extracted from the nanotube into vacuum. Each nanotube is either placed on the cathode electrode individually or grown normally to the cathode plane. Arrays of the nanotubes are also considered to multiply the output current. Two- and three-terminal device configurations are discussed. In all the cases considered, the device designs are such that both input and output capacitances are extremely low, while the efficiency of the electron extraction into vacuum is very high, so that the estimated operational frequencies are expected to be in a tera-hertz range. New vacuum triode structure with ballistic electron propagation along the nanotube is also considered.
    • 提出了新的混合真空电子器件,其中电子从纳米管中提取为真空。 每个纳米管或者单独地放置在阴极电极上或正常地生长到阴极平面。 纳米管阵列也被认为是乘以输出电流。 讨论了两端和三端设备配置。 在所有考虑的情况下,器件设计使得输入和输出电容都非常低,而电子提取到真空中的效率非常高,所以估计的工作频率预期为tera-Hz范围 。 也考虑了具有沿纳米管的弹道电子传播的新的真空三极管结构。
    • 8. 发明授权
    • Field-emission matrix display based on lateral electron reflections
    • 基于横向电子反射的场发射矩阵显示
    • US06614149B2
    • 2003-09-02
    • US10102467
    • 2002-03-20
    • Alexander KastalskySergey ShokhorFrank J. DiSantoDenis A. KrusosBoris GorfinkelNikolai Abanshin
    • Alexander KastalskySergey ShokhorFrank J. DiSantoDenis A. KrusosBoris GorfinkelNikolai Abanshin
    • H01J100
    • H01J1/3046H01J9/025H01J31/127H01J2201/30423
    • A Reflective Field Emission Display system, components and methods for fabricating the components. In the FED system, a plurality of reflective edge emission pixel elements are arranged in a matrix of N rows and M columns, the pixel elements contain an edge emitter that is operable to emit electrons and a reflector that is operable to extract and laterally reflect emitted electrons. A collector layer, laterally disposed from said reflector layer is operable to attract the reflected electrons. Deposited on the collector layer is a phosphor layer that emits a photon of a known wavelength when activated by an attracted electron. A transparent layer that is oppositely positioned with respect to the pixel elements is operable to attract reflected electrons and prevent reflected electrons from striking the phosphor layer. Color displays are further contemplated by incorporating individually controlled sub-pixel elements in each of the pixel elements. The phosphor layers emit photons having wavelengths in the red, green or blue color spectrum.
    • 反射场发射显示系统,用于制造部件的部件和方法。 在FED系统中,多个反射边缘发射像素元件以N行和M列的矩阵排列,像素元件包含可操作以发射电子的边缘发射器和可操作以提取和横向反射发射的反射器 电子。 从所述反射器层横向设置的集电极层可操作以吸引反射的电子。 沉积在集电极层上的是当被吸引的电子激活时发射已知波长的光子的磷光体层。 相对于像素元件相对定位的透明层可操作以吸引反射的电子并防止反射的电子撞击荧光体层。 通过在每个像素元件中并入单独控制的子像素元件,进一步考虑了彩色显示器。 荧光体层发射具有红色,绿色或蓝色光谱波长的光子。
    • 10. 发明授权
    • Nanotube-based vacuum devices
    • 基于纳米管的真空装置
    • US07102157B2
    • 2006-09-05
    • US11134800
    • 2005-05-23
    • Alexander KastalskySergey Shokhor
    • Alexander KastalskySergey Shokhor
    • H01L35/24
    • H01J19/24B82Y10/00H01J21/04H01J21/105H01J2201/30469Y10S977/876Y10S977/938
    • New, hybrid vacuum electronic devices are proposed, in which the electrons are extracted from the nanotube into vacuum. Each nanotube is either placed on the cathode electrode individually or grown normally to the cathode plane. Arrays of the nanotubes are also considered to multiply the output current. Two- and three-terminal device configurations are discussed. In all the cases considered, the device designs are such that both input and output capacitances are extremely low, while the efficiency of the electron extraction into vacuum is very high, so that the estimated operational frequencies are expected to be in a tera-hertz range. New vacuum triode structure with ballistic electron propagation along the nanotube is also considered.
    • 提出了新的混合真空电子器件,其中电子从纳米管提取到真空中。 每个纳米管或者单独地放置在阴极电极上或正常地生长到阴极平面。 纳米管阵列也被认为是乘以输出电流。 讨论了两端和三端设备配置。 在所有考虑的情况下,器件设计使得输入和输出电容都非常低,而电子提取到真空中的效率非常高,所以估计的工作频率预期为tera-Hz范围 。 也考虑了具有沿纳米管的弹道电子传播的新的真空三极管结构。