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    • 51. 发明申请
    • SENSOR CARTRIDGE
    • 传感器盒
    • WO2009013668A2
    • 2009-01-29
    • PCT/IB2008/052844
    • 2008-07-16
    • KONINKLIJKE PHILIPS ELECTRONICS N.V.IMMINK, Albert, H., J.DE THEIJE, Femke, K.PRINS, Menno, W., J.DITTMER, Wendy, U.NIEUWENHUIS, Jeroen, H.
    • IMMINK, Albert, H., J.DE THEIJE, Femke, K.PRINS, Menno, W., J.DITTMER, Wendy, U.NIEUWENHUIS, Jeroen, H.
    • G01R33/09
    • G01R33/1269
    • The present invention provides a sensor cartridge (10) for distinctively determining at least two different target moieties in a fluid sample. The sensor cartridge (10) comprises a reaction chamber (1) and at least a first and second region (2, 3) distinct from each other. The first region (2) comprises magnetic or magnetizable objects (4a) labelled with a first type of probes for specifically binding a first type of target moieties and the second region (3) comprises magnetic or magnetizable objects (4b) labelled with a second type of probes for specifically binding a second type of target moieties, the magnetic or magnetizable objects (4a, 4b) in the first and second region (2, 3) being directly contactable by the sample fluid. The present invention also provides a method for the manufacturing of such sensor devices (10) and a method for determining the presence and/or amount of at least two different target moieties in a sample fluid using such sensor cartridge (10).
    • 本发明提供一种用于区别地确定流体样品中至少两个不同靶部分的传感器盒(10)。 传感器盒(10)包括反应室(1)和至少彼此不同的第一和第二区域(2,3)。 第一区域(2)包括用第一类型的探针标记的磁性或可磁化物体(4a),用于特异性地结合第一类型的靶部分,第二区域(3)包括用第二类型标记的磁性或可磁化物体(4b) 的用于特异性结合第二类型的靶部分的探针,第一和第二区域(2,3)中的磁性或可磁化物体(4a,4b)可由样品流体直接接触。 本发明还提供了用于制造这种传感器装置(10)的方法以及使用这种传感器盒(10)确定样品流体中至少两种不同靶部分的存在和/或量的方法。
    • 53. 发明申请
    • MAGNETIC SENSOR DEVICE
    • 磁传感器装置
    • WO2008107847A1
    • 2008-09-12
    • PCT/IB2008/050794
    • 2008-03-05
    • KONINKLIJKE PHILIPS ELECTRONICS N.V.DE THEIJE, Femke, K.IMMINK, Albert, H., J.PELSSERS, Eduard, G., M.
    • DE THEIJE, Femke, K.IMMINK, Albert, H., J.PELSSERS, Eduard, G., M.
    • G01N33/543
    • G01N33/54333B82Y25/00G01N27/745G01R33/093G01R33/1269
    • The present invention provides a magnetic sensor device (20) for determining the presence and/or amount of target moieties (32) in a sample fluid, the target moieties being labeled with magnetic or magnetizable objects (33). The magnetic sensor device (20) comprises a sensor surface (23) lying in a plane, at least one magnetic element (21) for providing a sensor signal and at least one structure (24) extending from the sensor surface (23) in a direction substantially perpendicular to the plane of the sensor surface (23), the at least one structure (24) having a height (h) and a binding surface (25) for binding the labeled target moieties (32). The height (h) of the at least one structure (24) is higher than zero and lower or equal to a distance (z) of the labeled target moieties (32) from the sensor surface (23) corresponding to a signal cross-over point (27) from positive to negative signal contribution of the labeled target moieties (32) to the sensor signal, the signal cross-over point (27) being the distance at which a homogeneous distribution of magnetic or magnetizable objects (33) between the sensor surface (23) and that distance has a signal contribution to the sensor signal equal to zero.
    • 本发明提供了一种用于确定样品流体中靶部分(32)的存在和/或量的磁传感器装置(20),目标部分用磁性或可磁化物体(33)标记。 磁传感器装置(20)包括位于平面中的传感器表面(23),用于提供传感器信号的至少一个磁性元件(21)和至少一个从传感器表面(23)延伸的结构(24) 基本上垂直于传感器表面(23)的平面的方向,所述至少一个结构(24)具有用于结合标记的目标部分(32)的高度(h)和结合表面(25)。 所述至少一个结构(24)的高度(h)高于对应于信号交叉的传感器表面(23)的标记目标部分(32)的零度并且低于或等于距离(z) 点(27)从标记的目标部分(32)的正信号到负信号贡献到传感器信号,信号交叉点(27)是磁性或可磁化物体(33)之间的均匀分布的距离 传感器表面(23),并且该距离对传感器信号具有等于零的信号贡献。
    • 55. 发明申请
    • TWO-DIMENSIONAL SYMBOL DETECTOR FOR ONE-DIMENSIONAL SYMBOL DETECTION
    • 用于一维符号检测的二维符号检测器
    • WO2005088631A1
    • 2005-09-22
    • PCT/IB2005/050720
    • 2005-02-28
    • KONINKLIJKE PHILIPS ELECTRONICS N.V.IMMINK, Albert, H., J.COENE, Willem, M., J., M.
    • IMMINK, Albert, H., J.COENE, Willem, M., J., M.
    • G11B20/10
    • G11B20/10009G11B20/10046G11B2020/1859
    • The present invention relates to a symbol detection apparatus for detecting the symbol values of a one-dimensional channel data stream recorded along one-dimensional contiguous tracks on a record carrier, wherein the symbols of adjacent tracks have a varying phase relation. In order to enable the use of a 2D symbol detection scheme for symbol detection of the symbol values of a one-dimensional channel data stream, an apparatus is proposed comprising: a phase detection means (31) for detecting the phase relation of the symbols of at least two adjacent tracks, a processing means (30) for determining HF reference levels at the symbol positions of the symbols of said at least two adjacent tracks by recalculating an ideal two-dimensional target HF impulse response (g k,2D ) of the symbols of said at least two adjacent tracks, said ideal two-dimensional target HF impulse response (g k,2D ) representing an HF impulse response assuming no phase difference between the symbols of said at least two adjacent tracks, based on the detected phase relation, and 2D symbol detection means (6) for symbol detection of the symbols of at least one of said at least two adjacent tracks using said HF reference levels (REF k,i ) and HF signal values (HFk k,i ) read-out from said record carrier.
    • 本发明涉及一种符号检测装置,用于检测记录在记录载体上的一维连续轨迹记录的一维通道数据流的符号值,其中相邻轨迹的符号具有变化的相位关系。 为了能够使用2D符号检测方案来进行一维信道数据流的符号值的符号检测,提出了一种装置,包括:相位检测装置,用于检测符号的符号的相位关系, 至少两个相邻的轨道,一个处理装置(30),用于通过重新计算符号的理想二维目标HF脉冲响应(gk,2D)来确定所述至少两个相邻轨道的符号的符号位置处的HF基准电平 的所述至少两个相邻轨道的所述理想二维目标HF脉冲响应(gk,2D),其基于检测到的相位关系表示假定所述至少两个相邻轨道的符号之间没有相位差的HF脉冲响应,以及 2D符号检测装置(6),用于使用所述HF参考电平(REFk,i)和从所述记录ca读出的HF信号值(HFkk,i)来对所述至少两个相邻磁道中的至少一个的符号进行符号检测 rrier。
    • 56. 发明申请
    • APPARATUS AND METHOD FOR READING INFORMATION FROM AN INFORMATION CARRIER
    • 从信息载体读取信息的装置和方法
    • WO2005050630A2
    • 2005-06-02
    • PCT/IB2004/052285
    • 2004-11-03
    • KONINKLIJKE PHILIPS ELECTRONICS N.V.YIN, BinIMMINK, Albert, H., J.PADIY, AlexanderCOENE, Willem, M., J., M.
    • YIN, BinIMMINK, Albert, H., J.PADIY, AlexanderCOENE, Willem, M., J., M.
    • G11B7/00
    • G11B7/005G11B7/0903G11B19/045
    • ABSTRACT: In modem optical disc systems, inter-track spacing is chosen relatively small in order to allow high storage densities. As a result, the optical spot has a radius comparable with the track pitch, and the data written on neighboring tracks appear in the target track signal in the form of inter-track interference (cross-talk). To tackle the cross-talk problem, cross-talk canceling schemes are normally employed. These schemes use three spots, one spot on the main track and two satellite spots on adjacent tracks. The read signal (C) is improved by minimizing the cross-talk between the satellite signals (S + ,S - ) and the read signal (C). However, due to the decreasing inter-track spacing, the decorrelation concept fails since the satellite spots read too much central track information and become strongly correlated with the read signal (C), which causes "leakage" in the decorrelation. The present invention solves this problem with an additional circuit for outputting improved satellite signals ( Š + , Š - ) which circuit suppresses cross-talk of the main track present in the satellite signals (S + ,S - ) by minimizing a correlation between the satellite signals (S + ,S - ) and the read signal (C), the improved satellite signals ( Š + , Š - ) being subsequently fed to the first circuit which is arranged to suppress the cross-talk of the read signal (C) by minimizing a correlation between the improved read signal ( Č ) and the improved satellite signals ( Š + , Š - ).
    • 摘要:在调制解调器光盘系统中,选择相对较小的轨道间距,以便实现高存储密度。 结果,光点具有与轨道间距相当的半径,并且写入相邻轨道的数据以轨道间干扰(串扰)的形式出现在目标轨迹信号中。 为了解决串扰问题,通常采用串扰消除方案。 这些方案使用三个点,主轨道上有一个点,相邻轨道上有两个卫星点。 通过最小化卫星信号(S +,S - )和读信号(C)之间的串扰来改善读信号(C)。 然而,由于轨道间距减小,因为卫星点读取太多的中心轨迹信息并且与读信号(C)强相关,因此解相关概念失败,这导致去相关中的“泄漏”。 本发明解决了这个问题,用于输出改进的卫星信号(S +,S - )的附加电路,该电路抑制卫星信号中存在的主轨道的串扰(S +,S < 通过最小化卫星信号(S +,S - )和读取信号(C)之间的相关性,改进的卫星信号(S +,S - )随后被馈送到第一 电路,其被布置为通过最小化改进的读取信号(C)和改进的卫星信号(S +,S - )之间的相关性来抑制读取信号(C)的串扰。
    • 58. 发明申请
    • CODING SYSTEM
    • 编码系统
    • WO2004059647A1
    • 2004-07-15
    • PCT/IB2003/005498
    • 2003-11-26
    • KONINKLIJKE PHILIPS ELECTRONICS N.V.COENE, Willem, M., J., M.IMMINK, Albert, H., J.
    • COENE, Willem, M., J., M.IMMINK, Albert, H., J.
    • G11B20/18
    • G11B20/1217G11B20/10009G11B20/1426G11B20/1833G11B2020/1249G11B2020/1288G11B2220/2541H03M13/31
    • The present invention relates to a coding strategy for joint modulation coding and ECC coding. It relates in particular to the situation where 2D coding is performed along one-dimensionally evolving strips containing a number of bit rows in the radial direction of the strip, which is orthogonal to the former direction. The idea further relates to high-rate modulation coding. According to the invention, a strip is built up by an alternation of two basic sub-units, each with their own modulation code. The first sub-unit comprises a larger number of bit rows, and its (high-rate) modulation code has a high coding efficiency realized through the use of large codewords. The second sub-unit comprises a single or only few bit rows, and its modulation code has a lower efficiency, which makes it much less sensitive to error-propagation: another function of the sub-unit of the second type is to glue sub-units of the first type together while maintaining the 2D constraint also at the boundaries of the subunits of the first type. The first sub-unit relates to most or all of the source data, and is encoded first, prior to ECC coding. The second sub-unit relates to the ECC parities, and possibly the remainder of the source data. Both at the encoder and the decoder, special measures are taken related to the precise order of both modulation code encoders (and decoders), and of the ECC encoder (and decoder).
    • 本发明涉及联合调制编码和ECC编码的编码策略。 特别涉及沿着与前一方向正交的条带的沿径向方向包含多个位行的沿着一维演进的条带执行2D编码的情况。 该思想进一步涉及高速率调制编码。 根据本发明,通过两个基本子单元的交替构成条带,每个具有它们自己的调制码。 第一子单元包括较大数量的位行,并且其(高速率)调制码具有通过使用大码字实现的高编码效率。 第二子单元包括单个或只有几个位行,其调制码具有较低的效率,这使得对错误传播的敏感性要小得多:第二类子单元的另一个功能是将子层 第一类型的单元在维持2D约束的同时在第一类型的子单元的边界处。 第一子单元涉及大部分或全部源数据,并且在ECC编码之前首先被编码。 第二子单元涉及ECC奇偶校验,以及可能的源数据的其余部分。 在编码器和解码器中,采用与调制码编码器(和解码器)以及ECC编码器(和解码器)的精确顺序相关的特殊措施。