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Image analogies (2001)

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by Aaron Hertzmann
Citations:455 - 8 self
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BibTeX

@INPROCEEDINGS{Hertzmann01imageanalogies,
    author = {Aaron Hertzmann},
    title = {Image analogies},
    booktitle = {},
    year = {2001},
    pages = {327--340}
}

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Abstract

Figure 1 An image analogy. Our problem is to compute a new “analogous ” image B ′ that relates to B in “the same way ” as A ′ relates to A. Here, A, A ′ , and B are inputs to our algorithm, and B ′ is the output. The full-size images are shown in Figures 10 and 11. This paper describes a new framework for processing images by example, called “image analogies. ” The framework involves two stages: a design phase, in which a pair of images, with one image purported to be a “filtered ” version of the other, is presented as “training data”; and an application phase, in which the learned filter is applied to some new target image in order to create an “analogous” filtered result. Image analogies are based on a simple multiscale autoregression, inspired primarily by recent results in texture synthesis. By choosing different types of source image pairs as input, the framework supports a wide variety of “image filter ” effects, including traditional image filters, such as blurring or embossing; improved texture synthesis, in which some textures are synthesized with higher quality than by previous approaches; super-resolution, in which a higher-resolution image is inferred from a low-resolution source; texture transfer, in which images are “texturized ” with some arbitrary source texture; artistic filters, in which various drawing and painting styles are synthesized based on scanned real-world examples; and texture-by-numbers, in which realistic scenes, composed of a variety of textures, are created using a simple painting interface.

Keyphrases

image analogy    texture synthesis    arbitrary source texture    new analogous image    various drawing    texture transfer    filtered version    scanned real-world example    artistic filter    new framework    new target image    learned filter    source image pair    application phase    higher-resolution image    image filter effect    full-size image    training data    traditional image filter    painting style    design phase    recent result    realistic scene    simple painting interface    analogous filtered result    different type    low-resolution source    wide variety    previous approach    simple multiscale autoregression   

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