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    • 14. 发明申请
    • VIDEO-BASED FACE RECOGNITION USING PROBABILISTIC APPEARANCE MANIFOLDS
    • 基于视觉的面部识别使用概念外观图
    • US20090041310A1
    • 2009-02-12
    • US10703288
    • 2003-11-06
    • Ming-Hsuan YangJeffrey HoKuang-Chih Lee
    • Ming-Hsuan YangJeffrey HoKuang-Chih Lee
    • G06K9/00G06K9/54G06K9/60
    • G06K9/00335G06K9/00275G06K9/00288G06K9/3208G06K9/6232
    • The present invention meets these needs by providing temporal coherency to recognition systems. One embodiment of the present invention comprises a manifold recognition module to use a sequence of images for recognition. A manifold training module receives a plurality of training image sequences (e.g. from a video camera), each training image sequence including an individual in a plurality of poses, and establishes relationships between the images of a training image sequence. A probabilistic identity module receives a sequence of recognition images including a target individual for recognition, and identifies the target individual based on the relationship of training images corresponding to the recognition images. An occlusion module masks occluded portions of an individual's face to prevent distorted identifications.
    • 本发明通过向识别系统提供时间一致性来满足这些需求。 本发明的一个实施例包括使用一系列图像进行识别的歧管识别模块。 歧管训练模块接收多个训练图像序列(例如,从摄像机),每个训练图像序列包括多个姿势中的个体,并且建立训练图像序列的图像之间的关系。 概率识别模块接收包括用于识别的目标个体的识别图像序列,并且基于与识别图像相对应的训练图像的关系来识别目标个体。 闭塞模块遮挡个人脸部的遮挡部分以防止变形的识别。
    • 15. 发明授权
    • Adaptive probabilistic visual tracking with incremental subspace update
    • 具有增量子空间更新的自适应概率视觉跟踪
    • US07463754B2
    • 2008-12-09
    • US10989966
    • 2004-11-15
    • Ming-Hsuan YangJongwoo LimDavid RossRuei-Sung Lin
    • Ming-Hsuan YangJongwoo LimDavid RossRuei-Sung Lin
    • G06K9/00
    • G06K9/621G06K9/3241G06T7/207
    • A system and a method are disclosed for adaptive probabilistic tracking of an object within a motion video. The method utilizes a time-varying Eigenbasis and dynamic, observation and inference models. The Eigenbasis serves as a model of the target object. The dynamic model represents the motion of the object and defines possible locations of the target based upon previous locations. The observation model provides a measure of the distance of an observation of the object relative to the current Eigenbasis. The inference model predicts the most likely location of the object based upon past and present observations. The method is effective with or without training samples. A computer-based system provides a means for implementing the method. The effectiveness of the system and method are demonstrated through simulation.
    • 公开了用于运动视频内的对象的自适应概率跟踪的系统和方法。 该方法利用时变特征向量和动态,观察和推理模型。 Eigenbasis作为目标对象的模型。 动态模型表示对象的运动,并根据先前的位置定义目标的可能位置。 观察模型提供了对象相对于当前Eigenbasis的观察距离的度量。 推论模型基于过去和现在的观察预测对象的最可能的位置。 该方法在有或没有训练样本的情况下是有效的。 基于计算机的系统提供了实现该方法的手段。 通过仿真证明了系统和方法的有效性。
    • 16. 发明授权
    • Monocular tracking of 3D human motion with a coordinated mixture of factor analyzers
    • 单因素跟踪3D人体运动与因子分析仪的协调混合
    • US07450736B2
    • 2008-11-11
    • US11553382
    • 2006-10-26
    • Ming-Hsuan YangRui Li
    • Ming-Hsuan YangRui Li
    • G06K9/00
    • G06K9/00342G06K9/6232G06K9/6252G06T7/20
    • Disclosed is a method and system for efficiently and accurately tracking three-dimensional (3D) human motion from a two-dimensional (2D) video sequence, even when self-occlusion, motion blur and large limb movements occur. In an offline learning stage, 3D motion capture data is acquired and a prediction model is generated based on the learned motions. A mixture of factor analyzers acts as local dimensionality reducers. Clusters of factor analyzers formed within a globally coordinated low-dimensional space makes it possible to perform multiple hypothesis tracking based on the distribution modes. In the online tracking stage, 3D tracking is performed without requiring any special equipment, clothing, or markers. Instead, motion is tracked in the dimensionality reduced state based on a monocular video sequence.
    • 公开了一种用于从二维(2D)视频序列高效地和准确地跟踪三维(3D)人体运动的方法和系统,即使当发生自闭塞,运动模糊和大肢体运动时也是如此。 在离线学习阶段,获取3D运动捕捉数据,并根据学习动作生成预测模型。 因子分析仪的混合物作为局部维数减少剂。 在全球协调的低维空间内形成的因子分析器群集使得可以基于分布模式执行多个假设跟踪。 在线跟踪阶段,不需要任何特殊的设备,衣物或标记就可进行3D跟踪。 相反,基于单眼视频序列在维度降低状态下跟踪运动。
    • 18. 发明申请
    • DETECTING HUMANS VIA THEIR POSE
    • 通过他们的检测人类
    • US20070098254A1
    • 2007-05-03
    • US11553388
    • 2006-10-26
    • Ming-Hsuan YangAlessandro Bissacco
    • Ming-Hsuan YangAlessandro Bissacco
    • G06K9/62G06K9/00
    • G06K9/4647G06K9/00369
    • A method and system efficiently and accurately detects humans in a test image and classifies their pose. In a training stage, a probabilistic model is derived in an unsupervised or semi-supervised manner such that at least some poses are not manually labeled. The model provides two sets of model parameters to describe the statistics of images containing humans and images of background scenes. In a testing stage, the probabilistic model is used to determine if a human is present in the image, and classify the human's pose based on the poses in the training images. A solution is efficiently provided to both human detection and pose classification by using the same probabilistic model to solve the problems.
    • 一种方法和系统有效和准确地检测测试图像中的人类并对其姿态进行分类。 在训练阶段,以无监督或半监督的方式导出概率模型,使得至少一些姿势不是手动标记的。 该模型提供两组模型参数来描述包含人类和背景场景图像的图像的统计。 在测试阶段,概率模型用于确定人物是否存在于图像中,并且基于训练图像中的姿态对人的姿势进行分类。 通过使用相同的概率模型来解决问题,有效地提供了人类检测和姿态分类的解决方案。
    • 19. 发明申请
    • Face recognition system
    • 人脸识别系统
    • US20050180627A1
    • 2005-08-18
    • US10858930
    • 2004-06-01
    • Ming-Hsuan YangJongwoo LimDavid RossTakahiro Ohashi
    • Ming-Hsuan YangJongwoo LimDavid RossTakahiro Ohashi
    • G06K9/00G06K9/62G06K9/68G06K9/74
    • G06K9/6269G06K9/00228G06K9/6857
    • The face detection system and method attempts classification of a test image before performing all of the kernel evaluations. Many subimages are not faces and should be relatively easy to identify as such. Thus, the SVM classifier try to discard non-face images using as few kernel evaluations as possible using a cascade SVM classification. In the first stage, a score is computed for the first two support vectors, and the score is compared to a threshold. If the score is below the threshold value, the subimage is classified as not a face. If the score is above the threshold value, the cascade SVM classification function continues to apply more complicated decision rules, each time doubling the number of kernel evaluations, classifying the image as a non-face (and thus terminating the process) as soon as the test image fails to satisfy one of the decision rules. Finally, if the subimage has satisfied all intermediary decision rules, and has now reached the point at which all support vectors must be considered, the original decision function is applied. Satisfying this final rule, and all intermediary rules, is the only way for a test image to garner a positive (face) classification.
    • 面部检测系统和方法在执行所有内核评估之前尝试对测试图像进​​行分类。 许多子图像不是面孔,应该比较容易识别。 因此,SVM分类器尝试使用级联SVM分类使用尽可能少的内核评估来丢弃非面部图像。 在第一阶段,对前两个支持向量计算分数,并将分数与阈值进行比较。 如果分数低于阈值,则子图像被分类为不是脸部。 如果分数高于阈值,则级联SVM分类功能继续应用更复杂的决策规则,每次将内核评估的数量加倍,将图像分类为非面(并因此终止进程),一旦 测试图像不能满足其中一个决策规则。 最后,如果子图像满足了所有的中介决策规则,并且现在已经到了必须考虑所有支持向量的点,则应用原始决策函数。 满足这个最终规则和所有中介规则是测试图像获得积极(面部)分类的唯一方法。