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    • 21. 发明申请
    • A VIDEO SIGNAL ENCODER, A VIDEO SIGNAL PROCESSOR, A VIDEO SIGNAL DISTRIBUTION SYSTEM AND METHODS OF OPERATION THEREFOR
    • 视频信号编码器,视频信号处理器,视频信号分配系统及其操作方法
    • WO2005088973A1
    • 2005-09-22
    • PCT/IB2005/050637
    • 2005-02-22
    • KONINKLIJKE PHILIPS ELECTRONICS N.V.VAREKAMP, ChristiaanWILINSKI, PiotrSCHRODERS, Mark, F., A.
    • VAREKAMP, ChristiaanWILINSKI, PiotrSCHRODERS, Mark, F., A.
    • H04N7/26
    • H04N19/85H04N19/20H04N19/44H04N19/46
    • A video encoder (100) comprises a receiver (101) which receives an uncompressed video signal. An encoding element (103) generates a compressed video signal in accordance with a compression algorithm, such as an MPEG-2 encoding algorithm. In addition, a feature point processor (105) generates feature point data (105) in response to the uncompressed signal, and an output processor (107) generates an output video signal which comprises the compressed video signal and the feature point data. The output signal is received by a receiver (201) of a video signal processor (200). An extraction processor (203) extracts the feature point data and feeds it to a video processor unit (207) which processes the compressed video signal in response to the feature point data. The separate and independent generation of feature point data, such as feature point movement data or tracks using the uncompressed (original) video signal, eliminates or reduces the impact of compression artifacts, inaccuracies and errors on feature point locations and trajectories when these are detected using the compressed signal.
    • 视频编码器(100)包括接收未压缩视频信号的接收机(101)。 编码元件(103)根据诸如MPEG-2编码算法的压缩算法生成压缩视频信号。 此外,特征点处理器(105)响应于未压缩信号产生特征点数据(105),并且输出处理器(107)产生包括压缩视频信号和特征点数据的输出视频信号。 输出信号由视频信号处理器(200)的接收机(201)接收。 提取处理器(203)提取特征点数据并将其馈送到响应于特征点数据处理压缩视频信号的视频处理器单元(207)。 使用未压缩(原始)视频信号的特征点数据或特征点移动数据或轨道的独立和独立生成消除或减少当使用以下方式检测到特征点位置和轨迹时的压缩伪像,不准确性和错误的影响 压缩信号。
    • 24. 发明申请
    • DETERMINATION OF A POSITION CHARACTERISTIC FOR AN OBJECT
    • 确定对象的位置特征
    • WO2011086484A1
    • 2011-07-21
    • PCT/IB2011/050084
    • 2011-01-10
    • KONINKLIJKE PHILIPS ELECTRONICS N.V.VAREKAMP, ChristiaanVANDEWALLE, Patrick, Luc, E.MERTENS, Mark, Jozef, Willem
    • VAREKAMP, ChristiaanVANDEWALLE, Patrick, Luc, E.MERTENS, Mark, Jozef, Willem
    • G06T7/00
    • G06T7/004G06T7/70
    • A system for determining a position characteristic for an object in a room comprises an optically identifiable element (103) positioned on a background surface for a detection area of the room. A camera (101) is positioned across the detection area from the optically identifiable element (103) and captures an image comprising the detection area and the optically identifiable element (103). A detector (403) detects the optically identifiable element (103) in the image based on an optical property. An occlusion processor (405) determines an occlusion property for an occlusion of the optically identifiable element (103) in the image in response to the optical property. A position processor (407) determines a depth position in response to the occlusion property where, the depth position is indicative of a position of the object along the optical axis of the camera (101). The invention may for example allow presence detection and rough localization of a person in a room.
    • 用于确定房间中的物体的位置特性的系统包括位于房间的检测区域的背景表面上的可光学识别元件(103)。 照相机(101)从光学可识别元件(103)横跨检测区域定位,并且捕获包括检测区域和可光学识别元件(103)的图像。 检测器(403)基于光学特性检测图像中的光学可识别元件(103)。 闭塞处理器(405)响应于光学特性确定图像中可光学识别元件(103)的遮挡的遮挡特性。 位置处理器(407)响应于遮挡特性确定深度位置,其中深度位置指示物体沿着照相机(101)的光轴的位置。 本发明可以例如允许人的存在检测和粗略的本地化在房间中。
    • 26. 发明申请
    • METHOD AND IMAGE-PROCESSING DEVICE FOR HOLE FILLING
    • 用于钻孔填充的方法和图像处理装置
    • WO2009093185A2
    • 2009-07-30
    • PCT/IB2009/050222
    • 2009-01-21
    • KONINKLIJKE PHILIPS ELECTRONICS N.V.VAREKAMP, ChristiaanKLEIN GUNNEWIEK, Reinier, B., M.
    • VAREKAMP, ChristiaanKLEIN GUNNEWIEK, Reinier, B., M.
    • G06T5/00
    • G06T5/005G06T2207/10016G06T2207/20192
    • The present invention relates to an image-processing device and a method of assigning pixel values to adjacent pixel locations in an image (705) having unassigned pixel values. The method comprises the steps of generating first propagation pixel values (730) and first propagation weights (735) for propagating the first propagation pixel values (730) along a first direction towards the adjacent pixel locations by: generating the first propagation pixel values (730) for propagation to the adjacent pixel locations in the first direction, the first propagation pixel values (730) being based at least on assigned pixel values in a first region adjacent to the unassigned pixel locations; generating first propagation weights (735) for the first propagation pixel values (730) to account for discontinuities in pixel values of assigned pixel values in a second region adjacent to the hole along the first direction, such that the occurrence of a discontinuity in said assigned pixel values along the first direction results in lower first propagation weights (735); and assigning pixel values to the adjacent pixel locations based at least in part on the first propagation pixel values (730) and first propagation weights (735). The invention further relates to a computer program and a computer program product comprising the program for implementing the method.
    • 本发明涉及一种图像处理设备和一种将像素值分配给具有未分配的像素值的图像(705)中的相邻像素位置的方法。 该方法包括以下步骤:通过以下步骤生成用于沿第一方向朝向相邻像素位置传播第一传播像素值(730)的第一传播像素值(730)和第一传播权重(735):生成第一传播像素值(730 )用于传播到第一方向上的相邻像素位置,第一传播像素值(730)至少基于与未分配的像素位置相邻的第一区域中的分配的像素值; 产生第一传播像素值(730)的第一传播权重(735),以考虑与沿着第一方向的孔相邻的第二区域中的指定像素值的像素值的不连续性,使得在所述指派的 沿第一方向的像素值导致较低的第一传播权重(735); 以及至少部分地基于第一传播像素值(730)和第一传播权重(735)将像素值分配给相邻像素位置。 本发明还涉及包括用于实现该方法的程序的计算机程序和计算机程序产品。
    • 28. 发明申请
    • UP-SCALING
    • 向上扩展
    • WO2007132397A3
    • 2008-01-24
    • PCT/IB2007051701
    • 2007-05-07
    • KONINKL PHILIPS ELECTRONICS NVRIEMENS ABRAHAM KMACHADO PATRICK FVAREKAMP CHRISTIAANBARENBRUG BART G BBERRETTY ROBERT-PAUL M
    • RIEMENS ABRAHAM KMACHADO PATRICK FVAREKAMP CHRISTIAANBARENBRUG BART G BBERRETTY ROBERT-PAUL M
    • G06T3/40
    • G06T3/40
    • A method of up-scaling a first structure of samples representing a first property, the first structure having a source resolution, into a second structure of samples representing the first property, the second structure having a target resolution, on basis of a third structure of samples representing a second property, the third structure having the source resolution and on basis of a fourth structure of samples representing the second property, the fourth structure of samples having the target resolution, the method comprising: assigning weight factors to respective first samples of the first structure of samples on basis of differences between respective third samples of the third structure of samples and fourth samples of the fourth structure of samples; and computing the second samples of the second structure of samples on basis of the first samples of the first structure of samples and the respective weight factors.
    • 一种基于第三结构的第三结构,将表示第一属性的第一结构的第一结构(具有源分辨率)升级到表示第一属性的样本的第二结构中的方法,所述第二结构具有目标分辨率 代表第二属性的样本,第三结构具有源分辨率,并且基于表示第二属性的样本的第四结构,具有目标分辨率的样本的第四结构,该方法包括:将权重因子分配给第 基于样品的第三结构的第三样品和第四样品结构的第四样品的相应第三样品之间的差异的样品的第一结构; 以及基于第一样本结构的第一样本和相应的权重因子来计算第二样本结构的第二样本。
    • 29. 发明申请
    • RENDERING AN OUTPUT IMAGE
    • 渲染输出图像
    • WO2007096816A3
    • 2007-11-01
    • PCT/IB2007050515
    • 2007-02-16
    • KONINKL PHILIPS ELECTRONICS NVVAREKAMP CHRISTIAANBRULS WILHELMUS H A
    • VAREKAMP CHRISTIAANBRULS WILHELMUS H A
    • G06T15/20
    • G06T15/205H04N13/02H04N13/0296
    • A method of rendering an output image (202) on basis of an input image (200) and a corresponding matrix of depth related data (204), the input image (200) corresponding to a first viewpoint and the output image (202) corresponding to a second viewpoint being different from the first viewpoint, is disclosed. The method comprises: computing edges (212,312) in the matrix of depth related data (204), by computing derivatives of the depth related data in a predetermined direction (X); computing a measure of variation in pixel values in regions of the input image (200) corresponding to neighborhoods of the edges (212,312), the neighborhoods located at the background side of the edges (212,312); and computing the output image (202) by shifting respective pixel values of the input image (200) in the predetermined direction (X) on basis of scaled depth related data, wherein scaling is such that a relative large measure of variation results in a relative large reduction of depth.
    • 一种基于输入图像(200)和深度相关数据(204)的相应矩阵渲染输出图像(202)的方法,对应于第一视点的输入图像(200)和对应于输出图像的输出图像(202) 涉及与第一观点不同的第二观点。 该方法包括:通过计算预定方向(X)上的深度相关数据的导数来计算深度相关数据(204)的矩阵中的边缘(212,312); 计算对应于位于边缘(212,312)的背景侧的边缘(212,312)的邻域的输入图像(200)的区域中的像素值的变化的度量; 并且通过基于缩放的深度相关数据移动在预定方向(X)上输入图像(200)的各个像素值来计算输出图像(202),其中缩放使得相对较大的变化量度导致相对 大幅减少深度。
    • 30. 发明申请
    • VIDEO SIGNAL COMPRESSION
    • 视频信号压缩
    • WO2006137020A2
    • 2006-12-28
    • PCT/IB2006/051991
    • 2006-06-20
    • KONINKLIJKE PHILIPS ELECTRONICS N.V.KLEIN GUNNEWIEK, Reinier, B., M.VAREKAMP, Christiaan
    • KLEIN GUNNEWIEK, Reinier, B., M.VAREKAMP, Christiaan
    • H04N7/36H04N7/50
    • H04N19/553
    • A method of compressing and decompressing a sequence of images comprises segmenting a first and second image (30, 32) into regions (35a,b, 37a,b) of pixel locations. For each of a plurality of the regions (35a,b, 37a,b) a first transformation parameters (Da,b) such as a translation is computed to transformation the region (35a,b, 37a,b) from the first image to the and second image (30,32). Holes (38) are detected that are left between the regions (35a,b, 37a,b) when transforming the regions from the first image to the second image (30, 32) according to the first transformation parameters (Da,b).For each of the holes (38), a computed image property of the second image (32) in the hole is compared with corresponding computed image properties of the regions (35a,b, 37a,b) adjoining the hole. For each of the holes (38), one of the regions (35a,b, 37a,b) adjoining the hole (38) is selected, for which the image property is closest to the image property of the hole (38). A further image is encoded by means of correction information that represents a difference between the further image (40) and a predicted image, wherein the predicted image is obtained by transforming the regions (35a,b, 37a,b) with second transformation parameters derived from the first transformation parameters (Da,b). In each hole (46) in the predicted image (40) information from the second image (32), is substituted, transformed according to a transformation parameter value derived from the first transformation parameters (Da,b) of the selected region for the hole (38) in the second image that corresponds to the hole (46) in the predicted image. On decoding the predicted image is reconstructed and the correction information is used to computed a decompressed further image.
    • 压缩和解压缩图像序列的方法包括将第一和第二图像(30,32)分割成像素位置的区域(35a,b,37a,b)。 对于多个区域(35a,b,37a,b)中的每一个,计算诸如平移的第一变换参数(Da,b),以将区域(35a,b,37a,b)从第一图像转换为 第二图像(30,32)。 当根据第一变换参数(Da,b)将区域从第一图像变换到第二图像(30,32)时,检测留在区域(35a,b,37a,b)之间的孔(38)。 对于每个孔(38),将孔中的第二图像(32)的计算图像特性与与孔相邻的区域(35a,b,37a,b)的相应计算图像特性进行比较。 对于每个孔(38),选择与孔(38)相邻的区域(35a,b,37a,b)中的一个,图像特性最接近孔(38)的图像特性。 通过校正信息对另外的图像(40)和预测图像之间的差进行编码,其中通过用导出的第二变换参数来转换区域(35a,b,37a,b)来获得预测图像 从第一个变换参数(Da,b)。 在来自第二图像(32)的预测图像(40)的信息中的每个孔(46)中,根据从孔的所选择的区域的第一变换参数(Da,b)导出的变换参数值被替换,变换 (38)在对应于预测图像中的孔(46)的第二图像中。 在解码时,重建预测图像,并且使用校正信息来计算解压缩的另外的图像。