Character Sequence Models for Colorful Words
33525Authors
nan
Abstract
We present a neural network architecture to predict a point in color space from the se- quence of characters in the color’s name. Using large scale color–name pairs obtained from an online color design forum, we eval- uate our model on a “color Turing test” and find that, given a name, the colors predicted by our model are preferred by annotators to color names created by humans. Our datasets and demo system are available online at http: //colorlab.us. 1
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Proceedings of the 2016 Conference on Empirical Methods in Natural Language Processing, pages 1949–1954, Austin, Texas, November 1-5, 2016. c⃝2016 Association for Computational Linguistics Character Sequence Models for Colorful Words Kazuya Kawakami ♠, Chris Dyer♠♣ Bryan R. Routledge♦ Noah A. Smith♥ ♠School of Computer Science, Carnegie Mellon University, Pittsburgh, PA, USA ♣Google DeepMind, London, UK ♦Tepper School of Business, Carnegie Mellon University, Pittsburgh, PA, USA ♥Computer Science & Engineering, University of Washington, Seattle, WA, USA {kkawakam,cdyer}@cs.cmu.edu, routledge@cmu.edu, nasmith@cs.washington.edu Abstract We present a neural network architecture to predict a point in color space from the se- quence of characters in the color’s name. Using large scale color–name pairs obtained from an online color design forum, we eval- uate our model on a “color Turing test” and find that, given a name, the colors predicted by our model are preferred by annotators to color names created by humans. Our datasets and demo system are available online at http: //colorlab.us. 1 Introduction Color is a valuable vehicle for studying the associa- tion between words and their nonlinguistic referents. Perception of color has long been studied in psy- chology, and quantitative models linking physical stimuli and psychological perception have been in place since the 1920s (Broadbent, 2004). Although perceptually faithful color representations require only a few dimensions (§2), linguistic expressions of color often rely on association and figurative lan- guage. There are, for example, 34,000 examples of “blue” in our data. The varieties of blue range can be emotional, descriptive, metaphoric, literal, and whimsical. Consider these examples (best viewed in color): murkey blue, blueberry muffin, greeny blue, and jazzy blue. This rich variety of descriptive names of colors provides an ideal way to study linguistic creativity, its variation, and an important aspect of visual un- derstanding. This paper uses predictive modeling to explore the relationship between colors (represented in three dimensions) and casual, voluntary linguis- tic descriptions of them by users of a crafting and design website (§3).1 In this dataset’s creative vocabulary, word-level representations are so sparse as to be useless, so we turn to models that build name representations out of characters (§4). We evaluate our model on a “color Turing test” and find that, given a name, it tends to generate a color that humans find matches the name better than the color that actually inspired the name. We also investigate the reverse mapping, from colors to names (§5). We compare a conditional LSTM lan- guage model used in caption generation (Karpathy and Fei-Fei, 2014) to a new latent-variable model, achieving a 10% perplexity reduction. We expect such modeling to find purchase in computational creativity applications (Veale and Al- Najjar, 2015), design and marketing aids (Deng et al., 2010), and new methods for studying the inter- face between the human visual and linguistic sys- tems (Marcus, 1991). 2 Color Spaces In electronic displays and other products, colors are commonly represented in RGB space where each color is embedded in {0, . . . , 255}3, with coordi- nates corresponding to red, …
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We present a neural network architecture to predict a point in color space from the sequence of characters in the color’s name. Using large scale color–name pairs obtained from an online color design forum, we evaluate our model on a “color Turing test” and find that, given a name, the colors predicted by our model are preferred by annotators to color names created by humans. Our datasets and demo system are available online at http: //colorlab.us. 1
Publication Details
- Paper ID:
- 33525
- Year:
- 2016
- Publication:
- TIPSTER
- Publication Type:
- conf
- DOI:
- nan