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    • 2. 发明授权
    • Opportunistic cascade and cascade training, evaluation, and execution for vision-based object detection
    • 机会级联和级联培训,评估和执行基于视觉的对象检测
    • US09449259B1
    • 2016-09-20
    • US13558298
    • 2012-07-25
    • Shinko Y. ChengYuri OwechkoSwarup Medasani
    • Shinko Y. ChengYuri OwechkoSwarup Medasani
    • G06K9/62G06K9/46G06K9/66G06K9/68G06K9/70G06N99/00
    • G06K9/6257G06K9/3241G06K9/6217G06N99/005
    • The present invention relates to a classifier cascade object detection system. The system operates by inputting an image patch into parallel feature generation modules, each of the feature generation modules operable for extracting features from the image patch. The features are provided to an opportunistic classifier cascade, the opportunistic classifier cascade having a series of classifier stages. The opportunistic classifier cascade is executed by progressively evaluating, in each classifier in the classifier cascade, the features to produce a response, with each response progressively utilized by a decision function to generate a stage response for each classifier stage. If each stage response exceeds a stage threshold then the image patch is classified as a target object, and if the stage response from any of the decision functions does not exceed the stage threshold, then the image patch is classified as a non-target object.
    • 本发明涉及分级器级联物体检测系统。 该系统通过将图像补丁输入到并行特征生成模块中来操作,每个特征生成模块可操作用于从图像补片提取特征。 这些特征被提供给机会分类器级联,机会分类器级联具有一系列分类器级。 机会分类器级联是通过在分类器级联中的每个分类器中逐步评估产生响应的特征来执行的,每个响应由决策函数逐渐被利用以产生每个分类器阶段的阶段响应。 如果每个阶段响应超过阶段阈值,则图像补丁被分类为目标对象,并且如果来自任何决策函数的阶段响应不超过阶段阈值,则将图像补丁分类为非目标对象。
    • 3. 发明授权
    • Vision system for monitoring humans in dynamic environments
    • 用于在动态环境中监测人的视觉系统
    • US08253792B2
    • 2012-08-28
    • US12549425
    • 2009-08-28
    • James W. WellsRoland J. MenassaCharles W. Wampler, IISwarup MedasaniYuri OwechkoKyungnam KimYang Chen
    • James W. WellsRoland J. MenassaCharles W. Wampler, IISwarup MedasaniYuri OwechkoKyungnam KimYang Chen
    • H04N9/47
    • H04N7/181
    • A safety monitoring system for a workspace area. The workspace area related to a region having automated moveable equipment. A plurality of vision-based imaging devices capturing time-synchronized image data of the workspace area. Each vision-based imaging device repeatedly capturing a time synchronized image of the workspace area from a respective viewpoint that is substantially different from the other respective vision-based imaging devices. A visual processing unit for analyzing the time-synchronized image data. The visual processing unit processes the captured image data for identifying a human from a non-human object within the workspace area. The visual processing unit further determining potential interactions between a human and the automated moveable equipment. The visual processing unit further generating control signals for enabling dynamic reconfiguration of the automated moveable equipment based on the potential interactions between the human and the automated moveable equipment in the workspace area.
    • 用于工作区的安全监控系统。 与具有自动移动设备的区域相关的工作空间区域。 多个基于视觉的成像设备捕获工作区域的时间同步图像数据。 每个基于视觉的成像设备从与其他各自的基于视觉的成像设备基本上不同的相应视点重复地捕获工作区域的时间同步图像。 一种用于分析时间同步图像数据的可视处理单元。 视觉处理单元从工作区域内的非人物对象处理用于识别人的拍摄图像数据。 视觉处理单元进一步确定人与自动移动设备之间的潜在交互作用。 视觉处理单元还基于人与工作空间区域中的自动移动设备之间的潜在交互,进一步产生用于实现自动移动设备的动态重新配置的控制信号。
    • 5. 发明申请
    • Vision System for Monitoring Humans in Dynamic Environments
    • 动态环境监测人的视觉系统
    • US20110050878A1
    • 2011-03-03
    • US12549425
    • 2009-08-28
    • James W. WellsRoland J. MenassaCharles W. Wampler, IISwarup MedasaniYuri OwechkoKyungnam KimYang Chen
    • James W. WellsRoland J. MenassaCharles W. Wampler, IISwarup MedasaniYuri OwechkoKyungnam KimYang Chen
    • H04N7/18
    • H04N7/181
    • A safety monitoring system for a workspace area. The workspace area related to a region having automated moveable equipment. A plurality of vision-based imaging devices capturing time-synchronized image data of the workspace area. Each vision-based imaging device repeatedly capturing a time synchronized image of the workspace area from a respective viewpoint that is substantially different from the other respective vision-based imaging devices. A visual processing unit for analyzing the time-synchronized image data. The visual processing unit processes the captured image data for identifying a human from a non-human object within the workspace area. The visual processing unit further determining potential interactions between a human and the automated moveable equipment. The visual processing unit further generating control signals for enabling dynamic reconfiguration of the automated moveable equipment based on the potential interactions between the human and the automated moveable equipment in the workspace area.
    • 用于工作区的安全监控系统。 与具有自动移动设备的区域相关的工作空间区域。 多个基于视觉的成像设备捕获工作区域的时间同步图像数据。 每个基于视觉的成像设备从与其他各自的基于视觉的成像设备基本上不同的相应视点重复地捕获工作区域的时间同步图像。 一种用于分析时间同步图像数据的可视处理单元。 视觉处理单元从工作区域内的非人物对象处理用于识别人的拍摄图像数据。 视觉处理单元进一步确定人与自动移动设备之间的潜在交互作用。 视觉处理单元还基于人与工作空间区域中的自动移动设备之间的潜在交互,进一步产生用于实现自动移动设备的动态重新配置的控制信号。
    • 7. 发明申请
    • Graph-based cognitive swarms for object group recognition
    • 基于图的认知群体,用于对象组识别
    • US20070183670A1
    • 2007-08-09
    • US11433159
    • 2006-05-12
    • Yuri OwechkoSwarup Medasani
    • Yuri OwechkoSwarup Medasani
    • G06K9/62G06K9/46
    • G06K9/6292G06K9/00369G06K9/6229
    • An object recognition system is described that incorporates swarming classifiers. The swarming classifiers comprise a plurality of software agents configured to operate as a cooperative swarm to classify an object group in a domain. Each node N represents an object in the group having K object attributes. Each agent is assigned an initial velocity vector to explore a KN-dimensional solution space for solutions matching the agent's graph. Further, each agent is configured to search the solution space for an optimum solution. The agents keep track of their coordinates in the KN-dimensional solution space that are associated with an observed best solution (pbest) and a global best solution (gbest). The gbest is used to store the best solution among all agents which corresponds to a best graph among all agents. Each velocity vector thereafter changes towards pbest and gbest, allowing the cooperative swarm to classify of the object group.
    • 描述了包含群组分类器的对象识别系统。 群集分类器包括被配置为作为协作群进行操作以将域中的对象组分类的多个软件代理。 每个节点N表示具有K个对象属性的组中的对象。 为每个代理分配一个初始速度向量,以探索与代理图相匹配的解决方案的KN维解决方案空间。 此外,每个代理被配置为搜索解空间以获得最佳解决方案。 代理人跟踪与观察到的最佳解决方案(pbest)和全局最佳解决方案(gbest)相关联的KN维解决方案空间中的坐标。 gbest用于在所有代理之间存储对应于最佳图形的所有代理中的最佳解决方案。 其后每个速度矢量向pbest和gbest变化,允许协作群对目标群进行分类。
    • 8. 发明授权
    • Method for image registration utilizing particle swarm optimization
    • 使用粒子群优化的图像配准方法
    • US08645294B1
    • 2014-02-04
    • US12583238
    • 2009-08-17
    • Yuri OwechkoYang ChenSwarup Medasani
    • Yuri OwechkoYang ChenSwarup Medasani
    • G06F15/18
    • G06N5/043G06K9/6229G06N3/006G06T7/337G06T7/35
    • Described is a method for image registration utilizing particle swarm optimization (PSO). In order to register two images, a set of image windows is first selected from a test image and transformed. A plurality of software agents is configured to operate as a cooperative swarm to optimize an objective function, and an objective function is then evaluated at the location of each agent. The objective function represents a measure of the difference or registration quality between at least one transformed image window and a reference image. The position vectors representing the current individual best solution found and the current global best solution found by all agents are then updated according to PSO dynamics. Finally, the current global best solution is compared with a maximum pixel value which signifies a match between an image window and the reference image. A system and a computer program product are also described.
    • 描述了使用粒子群优化(PSO)的图像配准的方法。 为了注册两个图像,首先从测试图像中选择一组图像窗口并进行变换。 多个软件代理被配置为作为协作群来操作以优化目标函数,然后在每个代理的位置处评估目标函数。 目标函数表示至少一个变换的图像窗口和参考图像之间的差异或注册质量的度量。 然后根据PSO动态更新表示当前找到的最佳解决方案的位置向量和所有代理发现的当前全局最佳解。 最后,将当前全局最佳解决方案与表示图像窗口和参考图像之间的匹配的最大像素值进行比较。 还描述了系统和计算机程序产品。
    • 9. 发明授权
    • Three-dimensional (3D) object recognition system using region of interest geometric features
    • 三维(3D)对象识别系统使用感兴趣区域的几何特征
    • US08553989B1
    • 2013-10-08
    • US12799618
    • 2010-04-27
    • Yuri OwechkoSwarup MedasaniJim Nelson
    • Yuri OwechkoSwarup MedasaniJim Nelson
    • G06K9/00
    • G06K9/00201G06K9/3233G06K9/468
    • The present invention relates to a method for three-dimensional (3D) object recognition using region of interest geometric features. The method includes acts of receiving an implicit geometry representation regarding a three-dimensional (3D) object of interest. A region of interest (ROI) is centered on the implicit geometry representation such that there is at least one intersection area between the ROI and the implicit geometry representation. Object shape features are calculated that reflect a location of the ROI with respect to the implicit geometry representation. The object shape features are assembled into a feature vector. A classification confidence value is generated with respect to a particular object classification. Finally, the 3D object of interest is classified as a particular object upon the output of a statistical classifier reaching a predetermined threshold.
    • 本发明涉及使用感兴趣区域几何特征的三维(3D)物体识别方法。 该方法包括接收关于感兴趣的三维(3D)对象的隐式几何表示的动作。 感兴趣区域(ROI)以隐式几何表示为中心,使得ROI和隐式几何表示之间存在至少一个交叉区域。 计算反映相对于隐式几何表示的ROI的位置的对象形状特征。 对象形状特征被组合成特征向量。 相对于特定对象分类产生分类置信度值。 最后,感兴趣的3D对象在统计分类器的输出达到预定阈值时被分类为特定对象。
    • 10. 发明授权
    • Method for flexible feature recognition in visual systems incorporating evolutionary optimization
    • 包含进化优化的视觉系统中的灵活特征识别方法
    • US08406522B1
    • 2013-03-26
    • US12583239
    • 2009-08-17
    • Yuri OwechkoSwarup Medasani
    • Yuri OwechkoSwarup Medasani
    • G06K9/00
    • G06K9/6228G06K9/6229
    • Described is a method for flexible feature adaptation and matching for object recognition in visual systems which incorporates evolutionary optimization. In the present invention, an analysis window is provided to select a portion of an input image to be analyzed for the presence or absence of an object. The analysis window is then divided into spatial regions, and a feature kernel function for each spatial region is selected and optimized. A feature value for each spatial region is calculated by finding a suitable location that generates the best matching features to a stored set using an optimization algorithm. The feature values are concatenated for the spatial regions to comprise a feature vector. Finally, the feature vector is processed by a classification algorithm, and a determination is made whether the object is present in the analysis window.
    • 描述了一种用于可视化系统中的物体识别的灵活特征适应和匹配的方法,其包括进化优化。 在本发明中,提供了一个分析窗口,用于选择要分析的输入图像的一部分是否存在对象。 然后将分析窗口分为空间区域,并选择并优化每个空间区域的特征核函数。 通过使用优化算法找到对存储集合生成最佳匹配特征的合适位置来计算每个空间区域的特征值。 特征值被连接以使空间区域包括特征向量。 最后,通过分类算法处理特征向量,并确定对象是否存在于分析窗口中。