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    • 32. 发明授权
    • Fluorescent lamp with ultraviolet reflecting layer
    • 带紫外线反射层的荧光灯
    • US07205710B2
    • 2007-04-17
    • US10515693
    • 2003-05-27
    • Thomas JüstelWalter MayrCornelis Reinder RondaVolker Dirk Hildenbrand
    • Thomas JüstelWalter MayrCornelis Reinder RondaVolker Dirk Hildenbrand
    • H01J17/49C09K11/69
    • H01J61/42
    • An ultraviolet reflecting layer and a fluorescent lamp is described, comprising an envelope having an inner surface, means within the lamp envelope for generating ultraviolet radiation, a light emitting layer of a luminescent material for generating visible light when impinged by ultraviolet radiation, and said ultraviolet reflecting layer, located between the light emitting layer and the inner surface of the lamp envelope, wherein the ultraviolet reflecting layer comprises a metal phosphate and/or a metal borate, with the metal being selected from Sc, Y, La, Gd, Lu and Al, or combinations thereof. The phosphates or borates used in the ultraviolet reflecting layer may optionally be doped by a Tb3+ and/or Dy3+ activator, to further improve the quantum yield of the conversion of UV radiation into visible light.
    • 描述了一种紫外线反射层和荧光灯,其包括:具有内表面的外壳,用于产生紫外线辐射的灯外壳内的装置;用于在被紫外线照射时产生可见光的发光材料的发光层;以及所述紫外线 位于发光层和灯壳内表面之间的反射层,其中紫外线反射层包括金属磷酸盐和/或金属硼酸盐,金属选自Sc,Y,La,Gd,Lu和 Al或其组合。 用于紫外线反射层的磷酸盐或硼酸盐可以任选地被Tb 3+和/或Dy 3+活化剂掺杂,以进一步提高UV辐射转化成可见光的量子产率。
    • 36. 发明授权
    • CT detector including multi-layer fluorescent tape scintillator with switchable spectral sensitivity
    • CT检测器包括具有可切换光谱灵敏度的多层荧光带闪烁体
    • US08981311B2
    • 2015-03-17
    • US13696136
    • 2011-04-25
    • Simha LeveneNaor WainerAmiaz AltmanRafael GoshenCornelis Reinder Ronda
    • Simha LeveneNaor WainerAmiaz AltmanRafael GoshenCornelis Reinder Ronda
    • G01T1/20G01T1/29
    • G01T1/2018G01T1/2985
    • A scintillator element (114) comprising uncured scintillator material (112) is formed and optically cured to generate a cured scintillator element (122, 122″). The uncured scintillator material suitably combines at least a scintillator material powder and an uncured polymeric host. In a reel to reel process, a flexible array of optical detectors is transferred from a source reel (100) to a take-up reel (106) and the uncured scintillator material (112) is disposed on the flexible array and optically cured during said transfer. Such detector layers (31, 32, 33, 34, 35) are stackable to define a multi-layer computed tomography (CT) detector array (20). Detector element channels (50, 50′, 50″) include a preamplifier (52) and switching circuitry (54, 54′, 54″) having a first mode connecting the preamplifier with at least first detector array layers (31, 32) and a second mode connecting the preamplifier with at least second detector array layers (33, 34, 35).
    • 形成包括未固化的闪烁体材料(112)的闪烁体元件(114)并光学固化以产生固化的闪烁体元件(122,122“)。 未固化的闪烁体材料适当地组合至少闪烁体材料粉末和未固化的聚合物主体。 在卷轴到卷轴过程中,光学检测器的柔性阵列从源卷轴(100)传送到卷取卷轴(106),并且未固化的闪烁体材料(112)设置在柔性阵列上并且在所述 转让。 这种检测器层(31,32,33,34,35)可堆叠以限定多层计算机断层摄影(CT)检测器阵列(20)。 检测器元件通道(50,50',50“)包括前置放大器(52)和具有将前置放大器与至少第一检测器阵列层(31,32)连接的第一模式的开关电路(54,54',54”),以及 连接前置放大器与至少第二检测器阵列层(33,34,35)的第二模式。
    • 37. 发明授权
    • Light-based communication for configuration of light-sensing peripherals
    • 基于光的通信,用于配置光感外设
    • US08768171B2
    • 2014-07-01
    • US12863209
    • 2009-01-16
    • Tim Corneel Wilhelmus SchenkLorenzo FeriBartel Marinus Van De SluisCornelis Reinder Ronda
    • Tim Corneel Wilhelmus SchenkLorenzo FeriBartel Marinus Van De SluisCornelis Reinder Ronda
    • H04B10/00
    • H05B37/0272
    • The present invention relates to light-based communication, and more particularly it relates to methods for configuration of at least one remote light-sensing device, to a central light-emitting unit and to a light-sensing device. According to the invention, spatial configuration of remote light-sensing devices (e.g. peripherals such as loudspeakers or light devices), will be achieved by transmission of embedded identifiers or configuration information in light emitted in a plurality of directions from a central light-emitting unit. With a different identifier or different configuration information for each direction of transmission, the directions can be distinguished from each other. The invention enables a user to place remote light-sensing devices in a desired spatial position and the central light-emitting unit will be able to determine location and spatial function, i.e. for example whether the peripheral is an audio device and/or a lighting device. As a result, the peripherals will be correctly configured without any user interaction required.
    • 本发明涉及基于光的通信,更具体地说,涉及用于将至少一个远程光感测装置配置到中央发光单元和光感测装置的方法。 根据本发明,将通过在从中央发光单元的多个方向发射的光中传输嵌入的标识符或配置信息来实现远程光感测设备(例如外部设备,例如扬声器或光设备)的空间配置 。 对于每个发送方向使用不同的标识符或不同的配置信息,可以将方向彼此区分开。 本发明使得用户能够将远程光感测设备放置在期望的空间位置,并且中央发光单元将能够确定位置和空间功能,例如外围设备是否是音频设备和/或照明设备 。 因此,外设将被正确配置,无需任何用户交互。
    • 38. 发明申请
    • TERBIUM BASED DETECTOR SCINTILLATOR
    • 基于TERBIUM的检测器扫描仪
    • US20140177783A1
    • 2014-06-26
    • US14234639
    • 2012-07-03
    • Cornelis Reinder RondaNorbert ConradsHenning OhlandHerbert Schreinemacher
    • Cornelis Reinder RondaNorbert ConradsHenning OhlandHerbert Schreinemacher
    • G01T1/20G01N23/04
    • G01T1/2006C09K11/7771G01N23/046G01T1/2023G21K4/00
    • An imaging system (100) includes a radiation source (110) and a radiation sensitive detector array (116), which includes a scintillator array (118) and a photosensor array (120) optically coupled to the scintillator array, wherein the scintillator array includes Gd2O2S:Pr,Tb,Ce. A method includes detecting radiation with a radiation sensitive detector array (116) of an imaging system (100), wherein the radiation sensitive detector array includes a Gd2O2S:Pr,Tb,Ce based scintillator array (118). A radiation sensitive detector array (116) includes a scintillator array (118) and a photosensor array (120) optically coupled to the scintillator array, wherein the scintillator array includes Gd2O2S:Pr,Tb,Ce, and an amount of Tb3+ in the Gd2O2S:Pr,Tb,Ce is equal to or less than two hundred mole parts per million.
    • 成像系统(100)包括辐射源(110)和辐射敏感检测器阵列(116),其包括闪烁体阵列(118)和光学耦合到闪烁体阵列的光电传感器阵列(120),其中所述闪烁体阵列包括 Gd2O2S:Pr,Tb,Ce。 一种方法包括用成像系统(100)的辐射敏感检测器阵列(116)检测辐射,其中所述辐射敏感检测器阵列包括Gd 2 O 2 S:Pr,Tb,Ce基闪烁体阵列(118)。 辐射敏感检测器阵列(116)包括闪烁体阵列(118)和光学耦合到闪烁体阵列的光电传感器阵列(120),其中闪烁体阵列包括Gd 2 O 2 S:Pr,Tb,Ce和Gd 2 O 2 S中的Tb 3+ :Pr,Tb,Ce等于或小于百万分之二百摩尔。
    • 40. 发明授权
    • Vehicle positioning measurement system and method
    • 车辆定位测量系统及方法
    • US08174683B2
    • 2012-05-08
    • US12670440
    • 2008-07-24
    • Paulus Henricus Antonius DaminkSel Brian ColakCornelis Reinder RondaLorenzo FeriTim Corneel Wilhelmus Schenk
    • Paulus Henricus Antonius DaminkSel Brian ColakCornelis Reinder RondaLorenzo FeriTim Corneel Wilhelmus Schenk
    • G01C3/08
    • G01S11/12G01S17/36G01S17/936
    • A vehicle position measurement system (100) and method to determine the (relative) position of a vehicle (110) and an object (120) are proposed. The system comprises at least two light sources (131, 132) capable of emitting light and positioned at a predetermined distance (140) to each other. Furthermore the system comprises at least one detector (150/151, 152) capable of measuring the light emitted. The light emitted by the light sources comprises synchronized light source identification codes. The detector is arranged to determine the position of the vehicle (110) and object (120) on the basis of a phase-difference measurement between the light originating from the individual light sources (131, 132) and a comparison phase. The vehicle (110) may comprise the at least two light sources (131, 132) and the detector (151, 152), while the phase-difference is measured between light reflected from the object (120) and the comparison phase. Alternatively, the vehicle (110) may comprise the at least two light sources (131, 132) while the object (120) comprises the detector (150) and the detector is arranged to obtain the comparison phase from the light received from one of the light sources (131, 132). The object may be a vehicle.
    • 提出了一种用于确定车辆(110)和物体(120)的(相对)位置的车辆位置测量系统(100)和方法。 该系统包括能够发光并且彼此以预定距离(140)定位的至少两个光源(131,132)。 此外,该系统包括能够测量发射的光的至少一个检测器(150/151,152)。 由光源发出的光包括同步的光源识别码。 检测器被布置成基于来自各个光源(131,132)的光和比较相位之间的相位差测量来确定车辆(110)和物体(120)的位置。 车辆(110)可以包括至少两个光源(131,132)和检测器(151,152),同时在从物体(120)反射的光与比较相位之间测量相位差。 或者,车辆(110)可以包括至少两个光源(131,132),而物体(120)包括检测器(150),并且检测器被设置成从从 光源(131,132)。 物体可以是车辆。