Core Insights - The FFGo method revolutionizes the understanding of the first frame in video generation models, identifying it as a "conceptual memory buffer" rather than just a starting point [1][26] - This research highlights that the first frame retains visual elements for subsequent frames, enabling high-quality video customization with minimal data [1][6] Methodology - FFGo does not require structural changes to existing models and can operate effectively with only 20-50 examples, contrasting with traditional methods that need thousands of samples [6][24] - The method leverages Few-shot LoRA to activate the model's memory mechanism, allowing it to recall and integrate multiple reference objects seamlessly [16][22] Experimental Findings - Tests with various video models (Veo3, Sora2, Wan2.2) demonstrate that FFGo significantly outperforms existing methods in multi-object scenarios, maintaining object identity and scene consistency [4][17] - The research indicates that the true mixing of content begins after the fifth frame, suggesting that the first four frames can be discarded [16] Applications - FFGo has broad applications across multiple fields, including robot manipulation, driving simulation, aerial and underwater simulations, product showcases, and film production [12][24] - Users can provide a single first frame with multiple objects and a text prompt, allowing FFGo to generate coherent interactive videos with high fidelity [9][24] Conclusion - The study emphasizes that the potential of video generation models has been underutilized, and FFGo provides a framework for effectively harnessing this potential without extensive retraining [23][24] - By treating the first frame as a conceptual memory, FFGo opens new avenues for video generation, making it a significant breakthrough in the industry [24][26]