会员体验
专利管家(专利管理)
工作空间(专利管理)
风险监控(情报监控)
数据分析(专利分析)
侵权分析(诉讼无效)
联系我们
交流群
官方交流:
QQ群: 891211   
微信请扫码    >>>
现在联系顾问~
热词
    • 1. 发明申请
    • Image Segmentation Using Star-Convexity Constraints
    • 使用星形凸度约束的图像分割
    • US20110274352A1
    • 2011-11-10
    • US12776082
    • 2010-05-07
    • Andrew BlakeVarun GulshanCarsten RotherAntonio Criminisi
    • Andrew BlakeVarun GulshanCarsten RotherAntonio Criminisi
    • G06K9/34
    • G06T7/11G06T7/194G06T2207/20101G06T2207/20168
    • Image segmentation using star-convexity constraints is described. In an example, user input specifies positions of one or more star centers in a foreground to be segmented from a background of an image. In embodiments, an energy function is used to express the problem of segmenting the image and that energy function incorporates a star-convexity constraint which limits the number of possible solutions. For example, the star-convexity constraint may be that, for any point p inside the foreground, all points on a shortest path (which may be geodesic or Euclidean) between the nearest star center and p also lie inside the foreground. In some examples continuous star centers such as lines are used. In embodiments a user may iteratively edit the star centers by adding brush strokes to the image in order to progressively change the star-convexity constraints and obtain an accurate segmentation.
    • 描述了使用星形凸度约束的图像分割。 在一个示例中,用户输入指定要从图像的背景分割的前景中的一个或多个星形中心的位置。 在实施例中,能量函数用于表示分割图像的问题,并且能量函数包含限制可能解决方案数量的星形 - 凸度约束。 例如,星凸约束可以是,对于前景中的任何点p,最近的星中心和p之间的最短路径上的所有点(可以是测地线或欧几里德)也位于前景内。 在一些示例中,使用诸如线的连续星形中心。 在实施例中,用户可以通过向图像中添加画笔笔触来迭代地编辑星形中心,以逐渐改变星形凸度约束并获得准确的分割。
    • 3. 发明申请
    • Labeling Image Elements
    • 标记图像元素
    • US20100128984A1
    • 2010-05-27
    • US12323355
    • 2008-11-25
    • Victor LempitskyCarsten RotherAndrew Blake
    • Victor LempitskyCarsten RotherAndrew Blake
    • G06K9/34
    • G06K9/6224
    • An image processing system is described which automatically labels image elements of a digital image. In an embodiment an energy function describing the quality of possible labelings of an image is globally optimized to find an output labeled image. In the embodiment, the energy function comprises terms that depend on at least one non-local parameter. For example, the non-local parameter describes characteristics of image elements having the same label. In an embodiment the global optimization is achieved in a practical, efficient manner by using a tree structure to represent candidate values of the non-local parameter and by using a branch and bound process. In some embodiments, the branch and bound process comprises evaluating a lower bound of the energy function by using a min-cut process. For example, the min-cut process enables the lower bound to be evaluated efficiently using a graphical data structure to represent the lower bound.
    • 描述了自动标记数字图像的图像元素的图像处理系统。 在一个实施例中,描述图像的可能标记的质量的能量函数被全局优化以找到输出标记图像。 在该实施例中,能量函数包括依赖于至少一个非局部参数的项。 例如,非本地参数描述具有相同标签的图像元素的特征。 在一个实施例中,通过使用树结构来表示非局部参数的候选值并且通过使用分支和绑定过程,以实用,有效的方式实现全局优化。 在一些实施例中,分支和绑定过程包括通过使用最小切割过程来评估能量函数的下限。 例如,最小切割过程使得能够使用图形数据结构有效地评估下限来表示下限。
    • 7. 发明申请
    • Identifying Repeated-Structure Elements in Images
    • 识别图像中的重复结构元素
    • US20080069438A1
    • 2008-03-20
    • US11533297
    • 2006-09-19
    • John WinnAnitha KannanCarsten Rother
    • John WinnAnitha KannanCarsten Rother
    • G06K9/62
    • G06K9/4638
    • Many problems in the fields of image processing and computer vision relate to creating good representations of information in images of objects in scenes. We provide a system for learning repeated-structure elements from one or more input images. The repeated-structure elements are patches that may be single pixels or coherent groups of pixels of varying shape, size and appearance (where those shapes and sizes are not pre-specified). Input images are mapped to a single output image using offset maps to specify the mapping. A joint probability distribution on the offset maps, output image and input images is specified and an unsupervised learning process is used to learn the offset maps and output image. The learnt output image comprises repeated-structure elements. This shape and appearance information captured in the learnt repeated-structure elements may be used for object recognition and many other tasks.
    • 图像处理和计算机视觉领域的许多问题涉及在场景中的对象的图像中创建信息的良好表示。 我们提供一个用于从一个或多个输入图像学习重复结构元素的系统。 重复结构元素是可以是单个像素或具有不同形状,大小和外观(其中这些形状和尺寸未被预先指定)的像素的相干组的补丁。 使用偏移映射将输入图像映射到单个输出图像以指定映射。 指定偏移图,输出图像和输入图像上的联合概率分布,并使用无监督的学习过程来学习偏移图和输出图像。 所学习的输出图像包括重复结构元素。 在学习的重复结构元素中捕获的这种形状和外观信息可以用于对象识别和许多其他任务。
    • 8. 发明申请
    • Foreground extraction using iterated graph cuts
    • 使用迭代图切割的前景提取
    • US20050271273A1
    • 2005-12-08
    • US10861771
    • 2004-06-03
    • Andrew BlakeCarsten RotherPadmanabhan Anandan
    • Andrew BlakeCarsten RotherPadmanabhan Anandan
    • G06K9/00G06K9/34G06T5/00
    • G06K9/342G06K9/00624G06K2209/015G06T7/11G06T7/162G06T7/194G06T2207/20072G06T2207/20104
    • Techniques are disclosed to provide more efficient and improved extraction of a portion of a scene without requiring excessive user interaction. More particularly, the extraction may be achieved by using iterated graph cuts. In an implementation, a method includes segmenting an image into a foreground portion and a background portion (e.g., where an object or desired portion to be extracted is present in the foreground portion). The method determines the properties corresponding to the foreground and background portions of the image. Distributions may be utilized to model the foreground and background properties. The properties may be color in one implementation and the distributions may be a Gaussian Mixture Model in another implementation. The foreground and background properties are updated based on the portions. And, the foreground and background portions are updated based on the updated foreground and background properties.
    • 公开了技术来提供对场景的一部分的更有效和改进的提取,而不需要过度的用户交互。 更具体地,可以通过使用迭代图切割来实现提取。 在一个实现中,一种方法包括将图像分割成前景部分和背景部分(例如,在前景部分中存在要提取的对象或期望部分的位置)。 该方法确定与图像的前景和背景部分对应的属性。 可以使用分布来建模前景和背景属性。 在一个实现中,属性可以是颜色,并且在另一个实现中,分布可以是高斯混合模型。 前景和背景属性将根据部分进行更新。 并且,基于更新的前景和背景属性来更新前景和背景部分。
    • 10. 发明授权
    • Image segmentation using star-convexity constraints
    • 使用星形凸度约束的图像分割
    • US08498481B2
    • 2013-07-30
    • US12776082
    • 2010-05-07
    • Andrew BlakeVarun GulshanCarsten RotherAntonio Criminisi
    • Andrew BlakeVarun GulshanCarsten RotherAntonio Criminisi
    • G06K9/34
    • G06T7/11G06T7/194G06T2207/20101G06T2207/20168
    • Image segmentation using star-convexity constraints is described. In an example, user input specifies positions of one or more star centers in a foreground to be segmented from a background of an image. In embodiments, an energy function is used to express the problem of segmenting the image and that energy function incorporates a star-convexity constraint which limits the number of possible solutions. For example, the star-convexity constraint may be that, for any point p inside the foreground, all points on a shortest path (which may be geodesic or Euclidean) between the nearest star center and p also lie inside the foreground. In some examples continuous star centers such as lines are used. In embodiments a user may iteratively edit the star centers by adding brush strokes to the image in order to progressively change the star-convexity constraints and obtain an accurate segmentation.
    • 描述了使用星形凸度约束的图像分割。 在一个示例中,用户输入指定要从图像的背景分割的前景中的一个或多个星形中心的位置。 在实施例中,能量函数用于表示分割图像的问题,并且能量函数包含限制可能解决方案数量的星形 - 凸度约束。 例如,星凸约束可以是,对于前景中的任何点p,最近的星中心和p之间的最短路径上的所有点(可以是测地线或欧几里德)也位于前景内。 在一些示例中,使用诸如线的连续星形中心。 在实施例中,用户可以通过向图像中添加画笔笔触来迭代地编辑星形中心,以逐渐改变星形凸度约束并获得准确的分割。