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    • 2. 发明授权
    • Grid-controlled X-ray source and space X-ray communication system and method
    • 电网控制X射线源和空间X射线通信系统及方法
    • US09577766B2
    • 2017-02-21
    • US14346629
    • 2011-12-26
    • Baosheng ZhaoQiurong YanLizhi ShengYongan Liu
    • Baosheng ZhaoQiurong YanLizhi ShengYongan Liu
    • G01N23/00H04B10/90H01J31/49H01J35/14H04B10/112H04B10/118H01J35/04
    • H04B10/90H01J31/49H01J35/045H01J35/14H04B10/1123H04B10/118
    • The disclosure relates to a grid-controlled X-ray source, a space X-ray communication system and a space X-ray communication method. The structure of the grid-controlled X-ray source is: one end of the filament is grounded and the other end is connected with the anode of a power supply, the thermionic cathode is located at the side of the filament and the emergence hole thereof faces the filament, the modulation grid is an electrode plate with a small hole which faces the emergence hole of the thermionic cathode, the electronic beam focusing electrode is located on the two sides of the small hole of the modulation grid to form a focusing channel facing the small hole, an electronic beam is focused by the electronic beam focusing electrode and then transmitted to the metallic target anode, wherein the transmitting surface of the metallic target anode faces the outlet of the focusing channel and the other surface is connected with the anode of the power supply, and the output window is located on an reflection path of the electronic beam which is from the metallic target anode. The disclosure solves the technical problems that the signal-to-noise ratio of communication is low, the error rate error rate of communication is high and the speed of communication is low when an X ray is used for implementing communication in the conventional art, and has the advantages of long communication distance and the low error rate of communication.
    • 本发明涉及网格控制的X射线源,空间X射线通信系统和空间X射线通信方法。 电网控制的X射线源的结构是:灯丝的一端接地,另一端与电源的阳极连接,热离子阴极位于灯丝一侧,出炉孔 面向灯丝,调制栅是具有小孔的电极板,其面向热离子阴极的出射孔,电子束聚焦电极位于调制栅格的小孔的两侧,以形成面向 小孔时,电子束被电子束聚焦电极聚焦,然后传输到金属靶阳极,其中金属靶阳极的透射面面向聚焦通道的出口,另一表面与 电源和输出窗口位于来自金属目标阳极的电子束的反射路径上。 本发明解决了传统技术中使用X射线实现通信时通信的信噪比低,通信的误码率误差率高,通信速度低的技术问题, 具有通信距离长,通信误码率低的优点。
    • 3. 发明授权
    • Radiation detector
    • 辐射检测器
    • US07919757B2
    • 2011-04-05
    • US12295608
    • 2006-04-04
    • Hiromichi TonamiJunichi Ohi
    • Hiromichi TonamiJunichi Ohi
    • G01T1/20
    • G01T1/1642H01J31/49H01L27/1446H01L31/0272H01L31/107H01L31/117H04N5/32
    • A thin radiation detector with a high sensitivity is described. The radiation detector has light receiving elements receiving lights emitted by scintillators, performs a photoelectric conversion by using an avalanche multiplication film formed by amorphous selenium, and reads signals by using electron beams constantly discharged from a plurality of electron beam emitting sources called as a field emission array. The avalanche multiplication film formed by amorphous selenium is quite thin and has a simple structure, so it can be formed compactly and realized at a low cost. In addition, a signal amplification degree is approximately 1000 times, so an expensive low noise amplifier or a dedicated temperature adjusting mechanism is not required, and a quantum efficiency is sufficient for a wavelength of 300˜400 nm.
    • 描述了具有高灵敏度的薄辐射检测器。 辐射检测器具有接收由闪烁体发出的光的光接收元件,通过使用由非晶硒形成的雪崩倍增膜进行光电转换,并且通过使用被称为场致发射的多个电子束发射源恒定放电的电子束来读取信号 数组。 由非晶硒形成的雪崩倍增膜相当薄,结构简单,可以紧凑地成型,成本低廉。 此外,信号放大度为大约1000倍,因此不需要昂贵的低噪声放大器或专用温度调节机构,并且量子效率对于300〜400nm的波长是足够的。
    • 4. 发明申请
    • RADIATION DETECTOR
    • 辐射探测器
    • US20090242774A1
    • 2009-10-01
    • US12295604
    • 2006-04-04
    • Hiromichi TonamiJunichi Ohi
    • Hiromichi TonamiJunichi Ohi
    • G01T1/20
    • H04N5/30H01J31/49
    • A problem of local pin-hole defects generated in avalanche multiplication is avoided. Before an anode and a cathode are assembled as a light receiving element, a position of a pin-hole defect is specified by a vacuum container for specifying a defect position having a previously prepared field emission array for inspection. If the cathode is a field emission array when the anode and cathode are assembled as a light receiving element, the anode and cathode are assembled such that a field emission chip corresponding to the position of the pin-hole defect does not discharge an electron beam to the field emission array serving as an actual detector.
    • 避免了在雪崩倍增中产生的局部针孔缺陷的问题。 在阳极和阴极被组装为光接收元件之前,通过用于指定具有预先准备的用于检查的场致发射阵列的缺陷位置的真空容器来指定针孔缺陷的位置。 如果阴极是阳极和阴极作为光接收元件组装时的场致发射阵列,则组装阳极和阴极,使得与针孔缺陷的位置对应的场发射芯片不会将电子束放电 场发射阵列用作实际检测器。
    • 7. 发明授权
    • Photoelectric tube using electron beam irradiation diode as anode
    • 光电管采用电子束照射二极管作为阳极
    • US5780913A
    • 1998-07-14
    • US954616
    • 1997-10-27
    • Masaharu MuramatsuMotohiro SuyamaKoei Yamamoto
    • Masaharu MuramatsuMotohiro SuyamaKoei Yamamoto
    • H01J31/49H01L31/115
    • H01J31/49
    • When light is incident on the photoelectric surface of this electron tube, photoelectrons are emitted. These photoelectrons are accelerated and incident on an electron beam irradiation diode. A reverse voltage of about 100 V is applied to the electron beam irradiation diode to form a depletion region almost throughout an anode layer and near the p-n junction interface of a silicon substrate. The incident accelerated electrons release a kinetic energy in a heavily doped p-type layer having an electron incidence surface and the depleted anode layer to form electron-hole pairs. In this case, since the heavily doped p-type layer having the electron incidence surface is very thin, the energy is hardly released in this layer, and almost all energy is released in the depletion region. Signal charges extracted from the electron-hole pairs formed upon releasing the energy are output as a signal from two electrodes.
    • 当光入射到该电子管的光电表面上时,发射光电子。 这些光电子被加速并入射在电子束照射二极管上。 大约100V的反向电压被施加到电子束照射二极管,以在整个阳极层和硅衬底的p-n结界面附近形成耗尽区。 事件加速电子在具有电子入射表面和耗尽的阳极层的重掺杂p型层中释放动能以形成电子 - 空穴对。 在这种情况下,由于具有电子入射面的重掺杂p型层非常薄,所以在该层中几乎不释放能量,几乎所有能量在耗尽区中释放。 从释放能量时形成的电子 - 空穴对提取的信号电荷作为来自两个电极的信号被输出。
    • 8. 发明授权
    • Method and apparatus for two-dimensional radiation detection
    • 二维辐射检测方法和装置
    • US5532475A
    • 1996-07-02
    • US424878
    • 1995-04-19
    • Hiromichi TonamiSirou Oikawa
    • Hiromichi TonamiSirou Oikawa
    • G01T1/00G01T1/29G03B42/02H01J31/49H04N5/32H04N7/18H01J31/50
    • H04N5/32H01J31/49
    • A two-dimensional radiation detecting method and apparatus for converting incident radiation in a two-dimensional distribution into electric signals. The apparatus includes a target structure and an electron beam scan mechanism. The target structure has a fluorescent element, transparent electrodes in stripes and a photoconductive film laminated in the stated order on a substrate. The electron beam scan mechanism has a plurality of linear cathodes, backing electrodes for taking electron beams from a selected linear cathode, a vertically converging electrode, vertically deflecting electrodes, accelerating electrodes and a decelerating electrode. The electron beam scan mechanism simultaneously projects the electron beams distributed horizontally to one horizontal line on the photoconductive film, and then shifts the electron beams vertically, to read a two-dimensional distribution of potentials on the photoconductive film.
    • 一种用于将二维分布中的入射辐射转换为电信号的二维辐射检测方法和装置。 该装置包括目标结构和电子束扫描机构。 目标结构具有荧光元件,带状的透明电极和在基板上按顺序层叠的光电导膜。 电子束扫描机构具有多个线性阴极,用于从所选择的线性阴极获取电子束的背衬电极,垂直会聚电极,垂直偏转电极,加速电极和减速电极。 电子束扫描机构同时将电子束水平投射到光电导膜上的一条水平线上,然后垂直移动电子束,以读取光电导膜上的电位的二维分布。
    • 9. 发明授权
    • Detection process and apparatus
    • 检测过程和装置
    • US4496833A
    • 1985-01-29
    • US428255
    • 1965-01-26
    • Ludwig Wesch
    • Ludwig Wesch
    • G01S3/784H01J31/49H01J40/14G01J1/00H01J40/00
    • H01J31/49G01S3/784
    • 1. Apparatus for locating a target which radiates or reflects electromagnetic energy comprising a circular-scan cathode-ray tube including a screen and an electron beam moving over said screen, regions of said screen fluorescing when impinged upon by said electron beam to generate light energy, a plurality of semi-conductor elements disposed on said screen, each of said semi-conductor elements includng a layer of photoconductive material adjacent said screen and a layer of photo-dielectric material on said layer of photoconductive material and adapted to receive electromagnetic energy from said target, said photoconductive material having a low resistance only when receiving light energy, said photo-dielectric material changing electrical capacitance when receiving electromagnetic energy, means for conductively connecting together said layers of photoconductive material to provide a first terminal, an electromagnetic radiation permeable conductor disposed on all other said layers of photo-dielectric material and including a second terminal, and an oscillator means including a tuned circuit connected to said first and second terminals, said oscillator means transmitting a target indicating signal when the layer of photo-dielectric material of one of said semi-conductor elements receives electromagnetic energy simultaneously with the receipt of light energy by its associated layer of photoconductive material.
    • 1.一种用于定位辐射或反射电磁能的装置,包括包括屏幕和在所述屏幕上移动的电子束的圆形扫描阴极射线管,所述屏幕的区域在被所述电子束撞击时发出荧光,以产生光能 设置在所述屏幕上的多个半导体元件,每个所述半导体元件包括与所述屏幕相邻的光电导材料层和所述光电导材料层上的光电介质材料层,并且适于从 所述靶,所述光电导材料仅在接收光能时具有低电阻,所述光电介质材料在接收电磁能时改变电容,用于将所述光导电材料层导电连接在一起以提供第一端子的装置,电磁辐射可渗透导体 布置在所有其他所述ph层上 并且包括第二端子,以及包括连接到所述第一和第二端子的调谐电路的振荡器装置,所述振荡器装置在所述半导体元件之一的光电介质材料层发送目标指示信号 通过其相关的光电导材料层与光能的接收同时接收电磁能。