Optimization of image retrieval by using HSV color space, Zernike moment & DWT technique

Bhoomika Gupta, Shilky Shrivastava, Manish Gupta
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引用次数: 8

Abstract

Content Based Image Retrieval (CBIR) is the task of retrieving the images from the huge set of database on the basis of their own visual content. Content based image recovery is utilized for the programmed indexing and recovery of images depending on the contents of images called as the elements. This paper gives indicated way to utilize these primitive elements to recover the desired image. The procedure by which we acquire the provides image is CBIR. In the CBIR first color space of HSV is quantified to obtain the color histogram. Apply Color Correlogram for color features which are utilized for calculating distance between two different colors. Apply DWT (Discrete Wavelet transform) for surface elements. It extracts features in four blocks-low-high filter and combine features with standard and mean deviation values. Apply Gabor Filter for measuring orientation of texture features. Using Zernike moment, identify shapes of an image. Utilizing these parts an element grid is shaped. At that point this lattice is mapped with the normal for global color histogram and local color histogram, which are analyzed and looked at. In light of this standard, CBIR system uses color, surface and shape, fused elements to recover the desired image from the huge amount of database and subsequently gives more effectiveness or improvement in image recovery than the single component recovery system which means better image recovery results. Classify the data using radial basis kernel support vector machine. For the experiment, we used Wang Database of 1000 images. It gives accuracy around 70-85%.
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利用HSV色彩空间、泽尼克矩和小波变换技术优化图像检索
基于内容的图像检索(CBIR)是基于图像本身的视觉内容从庞大的数据库中检索图像的任务。基于内容的图像恢复用于根据称为元素的图像内容对图像进行编程索引和恢复。本文给出了利用这些原始元素恢复所需图像的具体方法。我们用CBIR的方法来获取提供的图像。在CBIR中,对HSV的第一颜色空间进行量化,得到颜色直方图。对颜色特征应用颜色相关图,用于计算两种不同颜色之间的距离。对表面元素应用离散小波变换(DWT)。该算法通过低-高四块滤波器提取特征,并将特征与标准差和均值相结合。应用Gabor滤波器测量纹理特征的方向。使用泽尼克矩,识别图像的形状。利用这些部分形成一个元素网格。此时,该点阵被映射到全局颜色直方图和局部颜色直方图的法线上,并对其进行分析和查看。根据这一标准,CBIR系统利用颜色、表面和形状等融合元素从海量的数据库中恢复出想要的图像,从而在图像恢复方面比单组分恢复系统更有效或更有改进,意味着更好的图像恢复效果。采用径向基核支持向量机对数据进行分类。在实验中,我们使用了1000张图片的Wang数据库。它的准确率在70-85%左右。
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