Robust Semantic Template Matching Using A Superpixel Region Binary Descriptor
Robust Semantic Template Matching Using A Superpixel Region Binary Descriptor
复制标题
使用超像素区域二进制描述符的鲁棒语义模板匹配
DOI:
10.1109/tip.2019.2893743
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发表时间:
2019
影响因子:
10.6
通讯作者:
Zhouping Yin
中科院分区:
文献类型:
--
作者:
Hua Yang;Chenghui Huang;Feiyue Wang;Kaiyou Song;Zhouping Yin
Almost all conventionaltemplate-matchingmethods employ low-level image features to measure the similarity between atemplateimage and a scene imageusingsimilarity measures, such as pixel intensity and pixel gradient. Although these methods have been widelyusedin many applications, they cannot simultaneously address all types ofrobustnesschallenges. In this paper, with the goal of simultaneously addressing the various challenges, we present arobustsemantictemplate-matching(RSTM) approach. Inspired by the localbinarydescriptor, we propose a novelsuperpixelregionbinarydescriptor(SRBD) to construct a multilevelsemanticfusion feature vector for RSTM. SRBDusesa new kernel-distance-based simple linear iterative clustering method to extract the stablesuperpixelsfrom thetemplateimage. Then, based on the average intensity difference between eachsuperpixelregionand its neighbors, the dominant gradient orientation of eachsuperpixelcan be obtained, and thesemanticfeatures of eachsuperpixelcan be described as the dominant orientation difference vector, which is coded as the rotation-invariant SRBD. In the offlinematchingphase, the fusionsemanticfeature vector of RSTM combines the multilevel SRBD features with different numbers ofsuperpixels. In the onlinematchingphase, to cope with rotation invariance, a marginal probability model is proposed and applied to locate the positions oftemplateimages in the scene image. Moreover, to accelerate computation, an image pyramid is employed. We conduct a series of experiments on a large dataset randomly selected from the MS COCO dataset to fully analyze therobustnessof this approach. The experimental results show that RSTM simultaneously addresses rotation changes, scale changes, noise, occlusions, blur, nonlinear illumination changes, and deformation with high time efficiency while also outperforming the previous state-of-the-arttemplate-matchingmethods..