A Human-Computer Collaborative Video Creation Paradigm Integrating Creative Intent Memory, Preference Feedback, and Editable Generation Control

Main Article Content

X. H. Wang
X. K. Wu
Y. Liu
M. Y. Huang

Abstract

This study proposes preference feedback learning and attribute decoupling control to solve the problems of continuous AIGC video production: fading the historical creative intent, inability to incorporate the user’s preference sustainably and content drift due to local edits. On top of multimodal conditional encoding, key-value memory retrieval and latent-space video diffusion generation, we develop a human-computer collaborative video generation system which combines creative intent memory, preference feedback and editable generation control. To model the interaction between different modalities —text, reference images, and historical information—cross-modal attention is used. It adopts short-term caching, long-term memory to maintain creation intention among rounds and adapts short-term caching and temporal constraints with spatial masking for attribute-level local editing and dynamically updates character, action, shot and style preferences from both explicit and implicit feedback. The results of 120 generation tasks indicate that the full model obtained a semantic consistency of 0.341, a 17.4 percentage point higher character retention of 91.8% and an average of 3.5 rounds of interaction compared to single-round prompts. The results show that this model improves cross-round semantic retention and personalized adaptation, and decreases repetitive interaction expenses in the continuous video creation, while maintaining local editing stability.

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How to Cite
Wang, X. H., Wu, X. K., Liu, Y., & Huang, M. Y. (2026). A Human-Computer Collaborative Video Creation Paradigm Integrating Creative Intent Memory, Preference Feedback, and Editable Generation Control. Advanced Electromagnetics, 15(3), 10019–10027. https://doi.org/10.7716/aem.v15i3.4200
Section
Research Articles

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