Consistent and Controllable Image Animation with Motion Linear Diffusion Transformers

TL;DR

MiraMo is a novel image animation framework that improves consistency, smoothness, and controllability by integrating efficient attention, motion residual learning, and DCT-based noise refinement, outperforming existing methods.

Contribution

The paper introduces MiraMo, a new approach combining linear attention, motion residual learning, and DCT-based noise refinement to enhance efficiency and quality in image animation.

Findings

Outperforms state-of-the-art methods in animation quality and consistency

Achieves faster inference with reduced computational complexity

Demonstrates versatility in motion transfer and video editing applications

Abstract

Image animation has seen significant progress, driven by the powerful generative capabilities of diffusion models. However, maintaining appearance consistency with static input images and mitigating abrupt motion transitions in generated animations remain persistent challenges. While text-to-video (T2V) generation has demonstrated impressive performance with diffusion transformer models, the image animation field still largely relies on U-Net-based diffusion models, which lag behind the latest T2V approaches. Moreover, the quadratic complexity of vanilla self-attention mechanisms in Transformers imposes heavy computational demands, making image animation particularly resource-intensive. To address these issues, we propose MiraMo, a framework designed to enhance efficiency, appearance consistency, and motion smoothness in image animation. Specifically, MiraMo introduces three key elements: (1) A foundational text-to-video architecture replacing vanilla self-attention with efficient linear attention to reduce computational overhead while preserving generation quality; (2) A novel motion residual learning paradigm that focuses on modeling motion dynamics rather than directly predicting frames, improving temporal consistency; and (3) A DCT-based noise refinement strategy during inference to suppress sudden motion artifacts, complemented by a dynamics control module to balance motion smoothness and expressiveness. Extensive experiments against state-of-the-art methods validate the superiority of MiraMo in generating consistent, smooth, and controllable animations with accelerated inference speed. Additionally, we demonstrate the versatility of MiraMo through applications in motion transfer and video editing tasks.