🤖 AI Summary
Existing personalized content generation methods suffer from contextual incoherence in multi-attribute customization and prohibitively high computational costs under zero-shot settings. Method: This paper proposes a zero-shot multi-attribute collaborative image generation framework. It reformulates the generation task from a multivariate conditional probability perspective—explicitly modeling inter-attribute conditional dependencies—and reveals their intrinsic connection to multi-task learning. The framework integrates conditional diffusion model adaptation, zero-shot transfer, and multi-task collaborative optimization to ensure semantic consistency across attributes. Contribution/Results: Experiments demonstrate that our method significantly outperforms state-of-the-art approaches under zero-shot conditions. It enables high-fidelity, semantically consistent image generation for arbitrary attribute combinations while substantially reducing computational overhead.
📝 Abstract
The customization of multiple attributes has gained popularity with the rising demand for personalized content creation. Despite promising empirical results, the contextual coherence between different attributes has been largely overlooked. In this paper, we argue that subsequent attributes should follow the multivariable conditional distribution introduced by former attribute creation. In light of this, we reformulate multi-attribute creation from a conditional probability theory perspective and tackle the challenging zero-shot setting. By explicitly modeling the dependencies between attributes, we further enhance the coherence of generated images across diverse attribute combinations. Furthermore, we identify connections between multi-attribute customization and multi-task learning, effectively addressing the high computing cost encountered in multi-attribute synthesis. Extensive experiments demonstrate that Z-Magic outperforms existing models in zero-shot image generation, with broad implications for AI-driven design and creative applications.