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    • 2. 发明申请
    • CHIRPED DICHROIC MIRROR AND A SOURCE FOR BROADBAND LIGHT PULSES
    • US20150229093A1
    • 2015-08-13
    • US14622555
    • 2015-02-13
    • Deutsches Elektronen-Synchrotron DESY
    • Franz KärtnerShih-Hsuan Chia
    • H01S3/00G02B5/08
    • H01S3/0057G02B5/0816G02B5/0825G02B5/281G02B27/1006G02B27/141H01S3/2391
    • The present invention is directed to a chirped dichroic mirror comprising a stack of alternating high refractive index and low refractive index layers, a front end portion including an antireflective coating followed by an impedance matching region in which the ratio of the optical thickness of a high refractive index layer to the optical thickness of the next following low refractive index layer is adiabatically increasing to a first value, the impedance matching region being followed by a chirped mirror region where the Bragg wavelength of the layer pair is generally increasing or generally decreasing, characterized in that the layers in a back end region form a second impedance matching region in which the ratio of the optical thickness of a high refractive index layer to the optical thickness of the next following low refractive index layer starts at the value of this ratio in the adjacent chirped mirror region and is then adiabatically decreasing in order to provide matched impedance to the surrounding medium over the transmission spectral band.
    • 本发明涉及一种啁啾分光镜,其包括交替的高折射率和低折射率层的叠层,前端部分包括抗反射涂层,其后是阻抗匹配区域,其中高折射率和高折射率层的光学厚度的比率 索引层与下一个低折射率层的光学厚度绝热地增加到第一值,阻抗匹配区域后面是啁啾反射镜区域,其中层对的布拉格波长通常增加或通常减小,其特征在于 后端区域中的层形成第二阻抗匹配区域,其中高折射率层的光学厚度与下一个低折射率层的光学厚度的比率以相邻的该比率的该值的值开始 啁啾镜区域,然后绝热地减少以提供匹配的障碍 通过传输光谱带向周围介质传播。
    • 4. 发明授权
    • Method for production of hollow bodies for resonators
    • 谐振器用中空体的制造方法
    • US08088714B2
    • 2012-01-03
    • US12095901
    • 2006-11-29
    • Xenia SingerWaldemar SingerJohannes SchwellenbachMichael Pekeler
    • Xenia SingerWaldemar SingerJohannes SchwellenbachMichael Pekeler
    • H01P11/00H05H7/20
    • H05H7/18H01P11/008
    • A method for production of hollow bodies, in particular for radio-frequency resonators is shown and described. The object to provide a hollow bodies and a resonator, respectively, having improved electrical properties is achieved by a method comprising the following steps: Providing a substrate having a monocrystalline region, defining a cut area through the substrate, fitting markings on both sides of the cut area, producing two wafers by cutting along the cut area, wherein the wafers are completely removed from the monocrystalline region, forming the wafers into half-cells, wherein the half-cells have a joining area, joining together the half-cells to form a hollow body, wherein the joining areas bear on one another, and wherein the markings on the half-cells are oriented with respect to one another on both sides of the joining area as on both sides of the cut areas.
    • 示出并描述了一种生产空心体的方法,特别是用于射频谐振器的方法。 通过包括以下步骤的方法来实现提供具有改善的电性能的中空体和谐振器的目的:提供具有单晶区域的衬底,通过衬底限定切割区域,在两侧的配合标记 切割区域,通过沿着切割区域切割来生产两个晶片,其中晶片从单晶区域完全去除,将晶片形成半电池,其中半电池具有接合区域,将半电池连接在一起以形成 中空体,其中所述接合区彼此承载,并且其中所述半单元上的标记在所述切割区域的两侧上在所述接合区域的两侧上相对于彼此定向。
    • 5. 发明申请
    • SELF-COMPENSATING DRIFT-FREE HIGH-FREQUENCY PHASE DETECTOR CIRCUIT
    • 自补偿无高速高频相位检测电路
    • US20110122977A1
    • 2011-05-26
    • US12301950
    • 2007-05-21
    • Frank Ludwig
    • Frank Ludwig
    • H04L1/00
    • H03D13/007
    • The present invention relates to a phase detector circuit (10) having an RF distribution device (20) which is intended to receive two sinusoidal high-frequency signals (RF, LO) with an input phase difference (φRF(t)−φLO(t)) and comprises two power splitters (21, 22) in order to split the two high-frequency signals (RF, LO) into two respective parts, a self-calibrating phase detector module (30) which is configured to receive one respective part of the two high-frequency signals which have been split, a low-noise phase detector module (40) which is configured to receive the respective other part of the high-frequency signals which have been split, and a complementary filter device (50) which is configured to receive the output signals from the self-calibrating phase detector module (30) and the low-noise phase detector module (40) and to output a signal which indicates the time-dependent input phase difference between the two high-frequency signals (RF, LO).
    • 本发明涉及一种具有RF分配装置(20)的相位检测器电路(10),该RF分配装置旨在接收具有输入相位差的两个正弦高频信号(RF,LO)(&phgr; RF(t) - &phgr ; LO(t)),并且包括两个功率分配器(21,22),以便将两个高频信号(RF,LO)分成两个相应部分;自校准相位检测器模块(30),其被配置为 接收已经被分离的两个高频信号的相应部分;低噪声相位检测器模块(40),被配置为接收已经被分离的高频信号的相应的另一部分;以及互补滤波器 设备(50),其被配置为从所述自校准相位检测器模块(30)和所述低噪声相位检测器模块(40)接收所述输出信号,并且输出指示所述自校准相位检测器模块 两个高频信号(RF,LO)。
    • 6. 发明申请
    • X-RAY DETECTOR MODULE WITH A COLLIMATOR
    • 带检测器的X射线探测器模块
    • US20100133442A1
    • 2010-06-03
    • US12063566
    • 2006-08-09
    • Karsten HansenAlexander Venzmer
    • Karsten HansenAlexander Venzmer
    • G01T1/24
    • H01L27/14618H01L27/14623H01L27/14659H01L2924/0002H01L2924/00
    • The invention relates an x-ray detector module comprising a plurality of silicium-drift detector cells which are arranged next to each other on a sensor chip. Said sensor chip is arranged in a recess of a frame-shaped base support, such that the sensitive chip surface lies in the opening of said frame-shaped base support. The aim of the invention is to improve the signal/base ratio. As a result, a mask (10) is fixed to the side of the base support (2) which is opposite to the recess, said mask covering the outer edge areas of external silicium-drift detector cells of the sensor chip (8) and ridges above the sensor chip (8) protrude into the opening of the base support (2). The ridges are arranged in such a manner that they cover the defining strips which are adjacent to the silicum drift detector cells, in order to protect the external edge areas and the defining strips which are covered by the mask (10) counter to the incident x-ray photons.
    • 本发明涉及一种X射线检测器模块,其包括在传感器芯片上彼此相邻布置的多个硅漂移检测器单元。 所述传感器芯片布置在框架状基座支撑件的凹部中,使得敏感芯片表面位于所述框架形基座支架的开口中。 本发明的目的是提高信号/基准比。 结果,掩模(10)固定到基座支撑件(2)的与凹部相对的一侧,所述掩模覆盖传感器芯片(8)的外部硅漂移检测器单元的外边缘区域,并且 传感器芯片(8)上方的脊突出到基座(2)的开口中。 脊以这样的方式布置,使得它们覆盖与硅离子漂移检测器单元相邻的限定条,以便保护由掩模(10)覆盖的外部边缘区域和定义条与反射x相反 射线光子。