Table of Links Introduction


Related Work
2.1 Semantic Typographic Logo Design
2.2 Generative Model for Computational Design
2.3 Graphic Design Authoring Tool


Formative Study
3.1 General Workflow and Challenges
3.2 Concerns in Generative Model Involvement
3.3 Design Space of Semantic Typography Work


Design Consideration


Typedance and 5.1 Ideation
5.2 Selection
5.3 Generation
5.4 Evaluation
5.5 Iteration


Interface Walkthrough and 6.1 Pre-generation stage
6.2 Generation stage
6.3 Post-generation stage


Evaluation and 7.1 Baseline Comparison
7.2 User Study
7.3 Results Analysis
7.4 Limitation


Discussion
8.1 Personalized Design: Intent-aware Collaboration with AI
8.2 Incorporating Design Knowledge into Creativity Support Tools
8.3 Mix-User Oriented Design Workflow


Conclusion and References Introduction Introduction Introduction Related Work
2.1 Semantic Typographic Logo Design
2.2 Generative Model for Computational Design
2.3 Graphic Design Authoring Tool Related Work 2.1 Semantic Typographic Logo Design 2.1 Semantic Typographic Logo Design 2.2 Generative Model for Computational Design 2.2 Generative Model for Computational Design 2.3 Graphic Design Authoring Tool 2.3 Graphic Design Authoring Tool Formative Study
3.1 General Workflow and Challenges
3.2 Concerns in Generative Model Involvement
3.3 Design Space of Semantic Typography Work Formative Study Formative Study 3.1 General Workflow and Challenges 3.1 General Workflow and Challenges 3.2 Concerns in Generative Model Involvement 3.2 Concerns in Generative Model Involvement 3.3 Design Space of Semantic Typography Work 3.3 Design Space of Semantic Typography Work Design Consideration Design Consideration Design Consideration Typedance and 5.1 Ideation
5.2 Selection
5.3 Generation
5.4 Evaluation
5.5 Iteration Typedance and 5.1 Ideation Typedance and 5.1 Ideation 5.2 Selection 5.2 Selection 5.3 Generation 5.3 Generation 5.4 Evaluation 5.4 Evaluation 5.5 Iteration 5.5 Iteration Interface Walkthrough and 6.1 Pre-generation stage
6.2 Generation stage
6.3 Post-generation stage Interface Walkthrough and 6.1 Pre-generation stage Interface Walkthrough and 6.1 Pre-generation stage 6.2 Generation stage 6.2 Generation stage 6.3 Post-generation stage 6.3 Post-generation stage Evaluation and 7.1 Baseline Comparison
7.2 User Study
7.3 Results Analysis
7.4 Limitation Evaluation and 7.1 Baseline Comparison Evaluation and 7.1 Baseline Comparison 7.2 User Study 7.2 User Study 7.3 Results Analysis 7.3 Results Analysis 7.4 Limitation 7.4 Limitation Discussion
8.1 Personalized Design: Intent-aware Collaboration with AI
8.2 Incorporating Design Knowledge into Creativity Support Tools
8.3 Mix-User Oriented Design Workflow Discussion 8.1 Personalized Design: Intent-aware Collaboration with AI 8.1 Personalized Design: Intent-aware Collaboration with AI 8.2 Incorporating Design Knowledge into Creativity Support Tools 8.2 Incorporating Design Knowledge into Creativity Support Tools 8.3 Mix-User Oriented Design Workflow 8.3 Mix-User Oriented Design Workflow Conclusion and References Conclusion and References Conclusion and References 5 TYPEDANCE Based on the identified design rationales and the highlighted opportunity to address the challenges and concerns in the design workflow, we have developed TypeDance, an authoring system that facilitates personalized generation for semantic typographic logos. TypeDance comprises five essential components, which closely correspond to the pregeneration, generation, and post-generation stages. In the pre-generation stage, the ideation component communicates with the user to gather comprehensible imageries (D1). The selection component allows the user to choose specific design materials, including typeface at various granularities and imagery with particular visual representations (D2). The generation component blends these design materials, utilizing a series of combinable design priors (D3). After the generation, the evaluation component enables the user to assess the current result’s position in the type-imagery spectrum (D4). The iteration component empowers user to refine their design by adjusting the type-imagery spectrum and editing each individual element (D5). D1 selection D2 generation D3 evaluation D4 D5 5.1 Ideation Thanks to the impressive language understanding and reasoning capabilities of large language models, we can now collaborate with a knowledgeable brain through text. TypeDance takes advantage of Instruct GPT-3 (davinci-002) [36] with Chain-of-Thought prompting [53] to generate relevant imagery based on given texts. To enhance user understanding, the prompting strategy includes the requirement to accompany the imagery with explanations in terms of visual design. This ensures that the answers provided are more interpretable and informative. For example, when the user provides the keyword “Hawaii,” TypeDance generates concrete imagery such as “Aloha Shirt,” “Hula Dancer,” and “Palm tree.” Along with these imagery words, TypeDance also provides explanations like “Symbolizes the vibrant culture and traditional dance form of Hawaii” for the “Hula Dancer”. By making this small change, TypeDance provides interpretable explanations and offers users additional background knowledge to enhance their understanding. Hawaii Aloha Shirt, Hula Dancer Palm tree. “Symbolizes the vibrant culture and traditional dance form of Hawaii “Hula Dancer” 5.2 Selection The selection aims to prepare design materials blended in the following generation. It encompasses two fundamental components: selecting typeface 𝐼𝑡 at various granularities and imagery 𝐼𝑖 with particular visual representations. We achieve the fine-grained high-fidelity segmentation based on Segment Anything Model [25], which offers user-friendly visual prompts as input, including box and point. As illustrated in Fig. 4, the different characteristics inherent to typefaces and imagery give rise to varying interactions that aim to align with the design rationales. Typeface Selection. Given the text, TypeDance allows creators to select typefaces 𝐼𝑡 at different granularity, as identified in our formative study, to achieve a more fine-grained and flexible approach to complex design practices. Instead of being limited to using complete strokes, TypeDance enables creators to select partial regions of a single stroke. To achieve this, As Fig. 4 shows, we implemented the drag-select interaction for creators to encompass specific parts of the typeface they need within a designated box. Compared to the click interaction, the drag-select offers a more explicit way to reveal user intention, which is free from rule-based segmentation that is restricted by a set of predetermined strokes, thus supporting more fine-grained selection. Moreover, TypeDance offers a combination selection by which creators can select strokes located far apart, as in the case shown in Fig. 4. Typeface Selection. Imagery Selection. Regarding imagery selection, we employ semantic segmentation to extract the visual representation creators require from a cluttered background. However, unlike typeface selection, the nature of imagery selection is more conducive to clicking rather than drag-selection. As depicted in Fig. 4, drag-selection can inadvertently encompass other objects the creator may not need while selecting their desired object. To address this issue, we have implemented a solution where creators can click on individual objects separately, mitigating the problem of unintentional object coverage. Similarly to typeface selection, TypeDance also supports combination selection, allowing creators to choose multiple objects within the image. Imagery Selection. Authors:
(1) SHISHI XIAO, The Hong Kong University of Science and Technology (Guangzhou), China;
(2) LIANGWEI WANG, The Hong Kong University of Science and Technology (Guangzhou), China;
(3) XIAOJUAN MA, The Hong Kong University of Science and Technology, China;
(4) WEI ZENG, The Hong Kong University of Science and Technology (Guangzhou), China. Authors: Authors (1) SHISHI XIAO, The Hong Kong University of Science and Technology (Guangzhou), China; (2) LIANGWEI WANG, The Hong Kong University of Science and Technology (Guangzhou), China; (3) XIAOJUAN MA, The Hong Kong University of Science and Technology, China; (4) WEI ZENG, The Hong Kong University of Science and Technology (Guangzhou), China. This paper is available on arxiv under ATTRIBUTION-NONCOMMERCIAL-SHAREALIKE 4.0 INTERNATIONAL license. This paper is available on arxiv under ATTRIBUTION-NONCOMMERCIAL-SHAREALIKE 4.0 INTERNATIONAL license. available on arxiv available on arxiv

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Create Custom Logos Using TypeDance’s 5-Step Process

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