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Projects > ELECTRONICS > 2017 > IEEE > DIGITAL IMAGE PROCESSING
Color and tone stylization in images and videos strives to enhance unique themes with artistic color and tone adjustments. It has a broad range of applications from professional image post-processing to photo sharing over social networks. Mainstream photo enhancement softwares, such as Adobe Lightroom and Instagram, provide users with predefined styles, which are often hand-crafted through a trial-and-error process. Such photo adjustment tools lack a semantic understanding of image contents and the resulting global color transform limits the range of artistic styles it can represent. On the other hand, stylistic enhancement needs to apply distinct adjustments to various semantic regions. Such an ability enables a broader range of visual styles. In this paper, we first propose a novel deep learning architecture for exemplar-based image stylization, which learns local enhancement styles from image pairs. Our deep learning architecture consists of fully convolutional networks (FCNs) for automatic semantics-aware feature extraction and fully connected neural layers for adjustment prediction. Image stylization can be efficiently accomplished with a single forward pass through our deep network. To extend our deep network from image stylization to video stylization, we exploit temporal superpixels (TSPs) to facilitate the transfer of artistic styles from image exemplars to videos.
Deep Neural Networks, Convolutional Neural Networks.
We propose a novel deep learning architecture for stylistic image enhancement. It consists of fully convolutional networks and fully connected neural layers. Our deep network is capable of learning distinct enhancement styles from a small set of training exemplars. Enhancing a novel image only requires a single forward pass through our network. Fully convolutional networks in our architecture extracts global features and contextual features. Our novel contextual features have two parts. The first part is a semantics-aware feature extracted from deep layers of a fully convolutional network; the second part consists of a set of color histograms over a small spatial grid. We demonstrate that deep neural networks trained with image exemplars can be used to enhance videos as well. We segment a video into temporal super pixels, and apply both temporally coherent and spatially smooth adjustments to them. A greedy frame selection algorithm is developed to reduce the computational cost of feature extraction.
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