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Image Classification Based on Quantum KNN Algorithm

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arxiv 1805.06260 v1 pith:4OJF7JBK submitted 2018-05-16 cs.CV

Image Classification Based on Quantum KNN Algorithm

classification cs.CV
keywords quantumclassificationalgorithmimageclassicalcomputingschemesimilarity
verification ladder T0 review T1 audit T2 compute T3 formal T4 reserved
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Image classification is an important task in the field of machine learning and image processing. However, the usually used classification method --- the K Nearest-Neighbor algorithm has high complexity, because its two main processes: similarity computing and searching are time-consuming. Especially in the era of big data, the problem is prominent when the amount of images to be classified is large. In this paper, we try to use the powerful parallel computing ability of quantum computers to optimize the efficiency of image classification. The scheme is based on quantum K Nearest-Neighbor algorithm. Firstly, the feature vectors of images are extracted on classical computers. Then the feature vectors are inputted into a quantum superposition state, which is used to achieve parallel computing of similarity. Next, the quantum minimum search algorithm is used to speed up searching process for similarity. Finally, the image is classified by quantum measurement. The complexity of the quantum algorithm is only O((kM)^(1/2)), which is superior to the classical algorithms. Moreover, the measurement step is executed only once to ensure the validity of the scheme. The experimental results show that, the classification accuracy is 83.1% on Graz-01 dataset and 78% on Caltech-101 dataset, which is close to existing classical algorithms. Hence, our quantum scheme has a good classification performance while greatly improving the efficiency.

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  1. Do We Really Need Quantum Machine Learning?: A Multidimensional Empirical Study

    cs.CV 2026-05 unverdicted novelty 5.0

    On MNIST, QSVM reaches ~0.90 accuracy vs ~0.85 for CSVM at 1000 samples while QCNN matches CCNN accuracy (>0.96) with ~94% fewer parameters and ~75% less memory but higher runtime; quantum edges grow with scale.