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视觉数据不变性特征研究
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摘要
随着多媒体技术的发展,视觉数据呈爆炸式增长。视觉数据识别作为视觉数据智能化处理的关键一环,其效果在极大程度上依赖于视觉数据特征的质量。本文对视觉数据特征提取的一些关键问题进行研究,其中包括图像复原、图像轮廓特征提取、静态纹理以及动态纹理的描述。实际采集得到的视觉数据通常含有各种类型的退化,这将影响特征提取的稳定性和特征的不变性。为消除这种影响,本文首先研究图像复原算法。图像复原技术可将退化图像还原到与真实接近的版本,为特征提取提供可靠的数据。轮廓特征作为人类视觉中的一种重要特征,目前尚未在图像识别中被充分运用和刻画。相对于轮廓特征,静态纹理特征在当前研究中较为成熟。但当前的静态纹理特征提取方法的计算复杂度较高,难以在实际中应用。动态纹理是静态纹理从图像空间延伸至时域的结果,普遍存在于视频数据中。相比于静态纹理,动态纹理能为识别提供额外的线索,但这种线索在当前研究中尚未被充分利用。针对以上问题,本文分别进行了研究,提出了对轮廓、静态纹理和动态纹理这三种特征的提取方法,所提取的特征具有一定的不变性和较强的鲁棒性。本文的研究成果概括如下:
     1.本文提出了一种数据驱动的非局部小波框架和小波紧框架构造方法。通过把所构造的非局部小波框架用于稀疏正则化,本文提出了一种通用有效的图像复原方法,该方法能同时利用图像的局部变化稀疏性先验以及非局部结构自相似先验,对处理图像的平滑区域和纹理区域都非常奏效,并在图像修复、去噪和去模糊实验中取得了一流的复原效果。
     2.通过把物理力矩概念引入图像域,本文提出了一种有效的轮廓子块显著性度量,据此设计出一种有效的轮廓特征提取方法,其中包括一个新颖的轮廓子块检测子和一个鲁棒的轮廓子块描述子。通过积分图像技术,可实现该轮廓特征的加速计算。所提出的轮廓特征具有较好的区分性,并能与纹理特征相互补充,在物体分类中表现出色。
     3.结合图像局部二值模式和全局分形分析,本文提出了一种纹理特征提取方法。相比于其他基于图像局部二值模式的方法,本文方法能很好地应用于复杂的随机纹理上;相对于其他基于分形分析的方法,本文方法在计算速度、特征紧凑性和分类精度上均具有优势。在四个公开纹理数据集上,本文方法取得了一流的分类结果。
     4.本文引入一种时空多重分形分析方法提取动态纹理特征,其中包含体分析和切片分析两部分:体分析用于描述动态纹理的整体分形特性;切片分析用于捕捉动态纹理沿不同方向的局部分形行为。结合四种时空多重分形测度,该方法能全方位地分析动态纹理中的自相似结构,并在三个基准动态纹理数据集上取得了一流的分类结果。
With the development of multimedia technology, visual data are exploding. Visual datarecognition, as a key step in the intelligent processing of visual data, largely depends on thequality of the visual data features. In this paper, several key issues in the extraction of visualdata features have been studied, including image restoration, image contour feature extraction,and, the description on static texture as well as dynamic texture. The visual data collectedfrom the real world inevitably involves various types of degradation. Such degradation mightsignificantly affect the stability of the feature extraction process as well as the invariance ofthe extracted features. To remedy this problem, this paper starts with the study on imagerestoration algorithm, which is expected to recover the clear image from the degraded versionand to provide reliable data for image recognition. Contour, as one kind of visual feature thatplays an important role in human vision, has not been fully exploited in image recognition.Compared with contour features, texture features have been extensively studied in the past.However, the computational complexity of the current approaches is still a problem thatshould be treated in practical use. Often presented in the exploding video data, dynamictexture is one type of significant visual feature, resulted from the extension of static texturefrom image space to temporal domain. Compared with static texture, dynamic texture canprovide additional cues for recognition. Nevertheless, the statistical self-similarity of dynamictexture along temporal axis has not been fully exploited. Motivated by the problems above,this paper studies the contour feature, the static texture feature and the dynamic texture featurerespectively, with several effective and robust solutions proposed. The contributions of thispaper are concluded as follow:
     1. A scheme for constructing a non-local wavelet frame as well as a wavelet tight frameis developed, based on which the sparsity regularization can simultaneously exploit both thesparse prior of local variations of image intensity and the non-local self-recursive prior ofimage structures over the image. Built upon the proposed construction scheme, a powerfulregularization-based method is developed for solving general image restoration problems. Theproposed method can perform well on both the cartoon-type region and the texture region.
     2. By introducing the concept of physical torque into image space, a significance metricfor contour patch is proposed. Based on the torque-based metric, a powerful contour-relatedfeature is proposed with a novel contour patch detector and a robust contour patch descriptor.Integral image trick is used to accelerate the calculation process of the proposed feature. Theproposed contour-related feature can perform well in classifying complex objects, and is ableto provide complementary information to texture feature.
     3. Combining local binary patterns coding with global fractal analysis, a powerful texturedescriptor is proposed and applied to texture classification. Compared with current localbinary pattern based approaches, the proposed approach can perform well in recognizingrandom textures from the real world. Compared to the state-of-the-art fractal-based methods,the proposed approach shows its advantages in speed, feature compactness and classificationaccuracy.
     4. A spatio-temporal multi-fractal analysis scheme is introduced for extracting dynamictexture features, which consists of two sub-schemes: one is the volumetric analysis for globalcharacterization and the other is the multi-slice analysis for encoding the local fractalbehaviors of dynamic texture along different axes. Combined with four spatio-temporalmulti-fractal measures, the proposed approach can fully capture the self-similar structuresexisting in dynamic texture from different perspectives.
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