Lin Teng, Hang Li, Shoulin Yin, Shahid Karim, Yang Sun
{"title":"An active contour model based on hybrid energy and fisher criterion for image segmentation","authors":"Lin Teng, Hang Li, Shoulin Yin, Shahid Karim, Yang Sun","doi":"10.1080/19479832.2019.1649309","DOIUrl":null,"url":null,"abstract":"Image segmentation (Lin et al. 2018, Shoulin et al. 2018) is the basic link of image processing and machine vision, so it is very important to study this content. Because the image can be interfered by many factors in the process of imaging, the image is usually with some problems such as heterogeneous, edge blur, noisy, which makes low accuracy of traditional segmentation methods. In recent years, the active contour model (Ben Rabeh et al. 2017) has achieved great success in image segmentation, which is widely concerned by researchers. The active contour model can be divided into two categories: parameter active contour model (Hanbay and Talu 2018) and geometric active contour model (Khamechian and Saadatmand-Tarzjan 2018). The geometric active contour model can be subdivided into two categories: dynamic contour model based on edge (Amini et al. 2004) and active contour model based on region (Soudani and Zagrouba 2017, Elisee et al. 2017). For the edge-based active contour model, the results are not ideal when it segments weak edge and the images with noise, the robustness of the initial contour lines is also poor. To this end, the scholars propose an active contour model based on region. There are some representative region-based active contour models, such as chan-vese model (CV) and Piecewise Smooth model (PS). The model is used to guide the curve evolution by using the information of pixel grey variance in the curve. And it does not depend on the gradient information of the image, so it can deal with the weak edge of image better. Shyu et al. (2012) introduced the Retinex theory into the active contour model, which was commonly used for image segmentation. The segmentation procedure was then guided by the image intensity and light reflection. In order to solve the proposed model efficiently, this work developed a new fast Split Bregman algorithm. The results were better. Xiaomin and Tingting (2017) presented an alternative criterion derived from the least squares projection twin support vector machine (LSPTSVM) for image segmentation. The proposed model treated image segmentation as pattern classification problem, and hence tried to seek the projected axis and centre for the foreground and background intensities, respectively. With level set representation, the discriminative function of LSTSVM was incorporated into the energy function of the active contour model, and derived the contour evolution accordingly. Experiment results demonstrated that this model held higher segmentation accuracy and more noise robustness. Le and Savvides (2016) proposed a novel joint formulation","PeriodicalId":46012,"journal":{"name":"International Journal of Image and Data Fusion","volume":"11 1","pages":"97 - 112"},"PeriodicalIF":1.8000,"publicationDate":"2019-08-04","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"https://sci-hub-pdf.com/10.1080/19479832.2019.1649309","citationCount":"13","resultStr":null,"platform":"Semanticscholar","paperid":null,"PeriodicalName":"International Journal of Image and Data Fusion","FirstCategoryId":"1085","ListUrlMain":"https://doi.org/10.1080/19479832.2019.1649309","RegionNum":0,"RegionCategory":null,"ArticlePicture":[],"TitleCN":null,"AbstractTextCN":null,"PMCID":null,"EPubDate":"","PubModel":"","JCR":"Q3","JCRName":"REMOTE SENSING","Score":null,"Total":0}
引用次数: 13
Abstract
Image segmentation (Lin et al. 2018, Shoulin et al. 2018) is the basic link of image processing and machine vision, so it is very important to study this content. Because the image can be interfered by many factors in the process of imaging, the image is usually with some problems such as heterogeneous, edge blur, noisy, which makes low accuracy of traditional segmentation methods. In recent years, the active contour model (Ben Rabeh et al. 2017) has achieved great success in image segmentation, which is widely concerned by researchers. The active contour model can be divided into two categories: parameter active contour model (Hanbay and Talu 2018) and geometric active contour model (Khamechian and Saadatmand-Tarzjan 2018). The geometric active contour model can be subdivided into two categories: dynamic contour model based on edge (Amini et al. 2004) and active contour model based on region (Soudani and Zagrouba 2017, Elisee et al. 2017). For the edge-based active contour model, the results are not ideal when it segments weak edge and the images with noise, the robustness of the initial contour lines is also poor. To this end, the scholars propose an active contour model based on region. There are some representative region-based active contour models, such as chan-vese model (CV) and Piecewise Smooth model (PS). The model is used to guide the curve evolution by using the information of pixel grey variance in the curve. And it does not depend on the gradient information of the image, so it can deal with the weak edge of image better. Shyu et al. (2012) introduced the Retinex theory into the active contour model, which was commonly used for image segmentation. The segmentation procedure was then guided by the image intensity and light reflection. In order to solve the proposed model efficiently, this work developed a new fast Split Bregman algorithm. The results were better. Xiaomin and Tingting (2017) presented an alternative criterion derived from the least squares projection twin support vector machine (LSPTSVM) for image segmentation. The proposed model treated image segmentation as pattern classification problem, and hence tried to seek the projected axis and centre for the foreground and background intensities, respectively. With level set representation, the discriminative function of LSTSVM was incorporated into the energy function of the active contour model, and derived the contour evolution accordingly. Experiment results demonstrated that this model held higher segmentation accuracy and more noise robustness. Le and Savvides (2016) proposed a novel joint formulation
图像分割(Lin et al. 2018, Shoulin et al. 2018)是图像处理和机器视觉的基础环节,因此对这一内容的研究非常重要。由于图像在成像过程中会受到多种因素的干扰,图像通常存在异质性、边缘模糊、噪声等问题,使得传统的分割方法精度较低。近年来,活动轮廓模型(Ben Rabeh et al. 2017)在图像分割方面取得了巨大成功,受到研究者的广泛关注。活动轮廓模型可分为两类:参数活动轮廓模型(Hanbay and Talu 2018)和几何活动轮廓模型(Khamechian and Saadatmand-Tarzjan 2018)。几何活动轮廓模型可细分为两类:基于边缘的动态轮廓模型(Amini et al. 2004)和基于区域的活动轮廓模型(Soudani and Zagrouba 2017, Elisee et al. 2017)。基于边缘的活动轮廓模型在分割弱边缘和含噪声图像时效果不理想,初始轮廓线的鲁棒性也较差。为此,学者们提出了一种基于区域的活动轮廓模型。有代表性的基于区域的活动轮廓模型有chan-vese模型(CV)和分段平滑模型(PS)。该模型利用曲线中像素灰度方差信息来指导曲线演化。该方法不依赖于图像的梯度信息,能较好地处理图像的弱边缘。Shyu et al.(2012)将Retinex理论引入到常用的图像分割活动轮廓模型中。然后以图像强度和光反射为指导进行分割。为了有效地求解所提出的模型,本文开发了一种新的快速分割Bregman算法。结果更好。Xiaomin和Tingting(2017)提出了一种基于最小二乘投影双支持向量机(LSPTSVM)的图像分割替代准则。该模型将图像分割视为模式分类问题,分别寻求前景和背景强度的投影轴和投影中心。通过水平集表示,将LSTSVM的判别函数融入到活动轮廓模型的能量函数中,推导出轮廓的演化过程。实验结果表明,该模型具有较高的分割精度和较强的噪声鲁棒性。Le和Savvides(2016)提出了一种新的联合配方
期刊介绍:
International Journal of Image and Data Fusion provides a single source of information for all aspects of image and data fusion methodologies, developments, techniques and applications. Image and data fusion techniques are important for combining the many sources of satellite, airborne and ground based imaging systems, and integrating these with other related data sets for enhanced information extraction and decision making. Image and data fusion aims at the integration of multi-sensor, multi-temporal, multi-resolution and multi-platform image data, together with geospatial data, GIS, in-situ, and other statistical data sets for improved information extraction, as well as to increase the reliability of the information. This leads to more accurate information that provides for robust operational performance, i.e. increased confidence, reduced ambiguity and improved classification enabling evidence based management. The journal welcomes original research papers, review papers, shorter letters, technical articles, book reviews and conference reports in all areas of image and data fusion including, but not limited to, the following aspects and topics: • Automatic registration/geometric aspects of fusing images with different spatial, spectral, temporal resolutions; phase information; or acquired in different modes • Pixel, feature and decision level fusion algorithms and methodologies • Data Assimilation: fusing data with models • Multi-source classification and information extraction • Integration of satellite, airborne and terrestrial sensor systems • Fusing temporal data sets for change detection studies (e.g. for Land Cover/Land Use Change studies) • Image and data mining from multi-platform, multi-source, multi-scale, multi-temporal data sets (e.g. geometric information, topological information, statistical information, etc.).