The Paper Adaptive Nonseparable Wavelet Transform via Lifting and its Application to Content-Based Image Retrieval. Adapt a multidimensional wavelet filter bank, based on the nonseparable lifting scheme framework. The lifting scheme there are two linear filter denoted P (prediction) and U ( update) are defined as Neville filters of order N and ?, respectively. We are applying the Haar wavelet transform & wavelet decomposition of the image then we enter the Neville filter order & optimization the Neville filter. Lifting scheme on quincunx grids perform wavelet decomposition of 2-D signal (image) and corresponding reconstruction tools for image as well as a function for computation of moments. The wavelet scheme rely on the lifting scheme use the splitting of rectangular grid into quincunx grid. The proposed methods apply the genetic algorithm wide range of problems, from optimization problem inductive concept learning, scheduling, and layout problem. In this project we did comparison between separable wavelet and nonseparable wavelet. We calculate the retrieval rate of separable and nonseparable.Retrieval rate is more means maximum features can be extracted. This method is applied to content-based image retrieval (CBIR) an image signature is derived from this new adaptive non-separable wavelet transform. In CBIR we are used Texture feature for retrieving the image. Images are scanned through its particular characteristics now some degree of freedom is given to the algorithm to find the image from its weight so term non-separable lifting is used and through the wavelet transformation Image primal and dual wavelet is taken into consideration for the application.

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Multiresolution analysis Lifting scheme Quincunx grid and lifting scheme Genetic algorithms Kullback-leibler Divergence CBIR