Automated UI Interface Generation via Diffusion Models: Enhancing Personalization and Efficiency

TL;DR

This paper introduces a diffusion model-based method for automated, personalized UI interface generation that outperforms existing models in quality and user satisfaction, advancing UI design automation.

Contribution

It presents a novel diffusion model approach incorporating conditional generation, design optimization, and user feedback for high-quality, personalized UI creation.

Findings

Proposed model surpasses GAN, VAE, DALL E in quality metrics.

Conditional generation and optimization modules significantly improve interface quality.

Model achieves higher user satisfaction and visual aesthetics.

Abstract

This study proposes a UI interface generation method based on a diffusion model, aiming to achieve high-quality, diversified, and personalized interface design through generative artificial intelligence technology. The diffusion model is based on its step-by-step denoising generation process. By combining the conditional generation mechanism, design optimization module, and user feedback mechanism, the model can generate a UI interface that meets the requirements based on multimodal inputs such as text descriptions and sketches provided by users. In the study, a complete experimental evaluation framework was designed, and mainstream generation models (such as GAN, VAE, DALL E, etc.) were selected for comparative experiments. The generation results were quantitatively analyzed from indicators such as PSNR, SSIM, and FID. The results show that the model proposed in this study is superior to other models in terms of generation quality and user satisfaction, especially in terms of logical clarity of information transmission and visual aesthetics. The ablation experiment further verifies the key role of conditional generation and design optimization modules in improving interface quality. This study provides a new technical path for UI design automation and lays the foundation for the intelligent and personalized development of human-computer interaction interfaces. In the future, the application potential of the model in virtual reality, game design, and other fields will be further explored.