Recent research in text-guided video editing aims to extend image-based editing models to video domains. A significant challenge in this transition is ensuring temporal consistency across frames. However, existing methods often exhibit limited editing accuracy when processing prompts associated with motion, such as “ floating ” or “ moving .” Our analysis indicates that this limitation arises from inaccurate attention maps corresponding to motion-related prompts. To address this, we introduce the Motion-to-Attention (M2A) module, explicitly integrating motion information for enhanced video editing precision. Specifically, we first convert optical flow extracted from the video into a comprehensive motion map. Optionally, users can specify directional information to refine motion map extraction further. The proposed M2A module incorporates two complementary techniques: “ Attention–Motion Swap ,” which directly substitutes the imprecise attention map of motion prompts with the extracted motion map, and “ Attention–Motion Fusion ,” which adaptively enhances attention maps based on the correlation with the motion map using a carefully selected Fusion metric. Experimental validation demonstrates that incorporating our M2A module into existing text-to-video editing frameworks significantly improves both quantitative performance metrics (CLIP-Acc, Masked PSNR, BRISQUE) and qualitative visual quality. Extensive experiments and comparative studies confirm the superior editability and robustness of our method over current state-of-the-art approaches. Comprehensive results are publicly available at https://currycurry915.github.io/Motion-to-Attention/ .

To achieve realistic immersion in landscape images, fluids such as water and clouds need to move within the image while revealing new scenes from various camera perspectives. Recently, a field called dynamic scene video has emerged, which combines single image animation with 3D photography. These methods use pseudo 3D space, implicitly represented with Layered Depth Images (LDIs). LDIs separate a single image into depth-based layers, which enables elements like water and clouds to move within the image while revealing new scenes from different camera perspectives. However, as landscapes typically consist of continuous elements, including fluids, the representation of a 3D space separates a landscape image into discrete layers, and it can lead to diminished depth perception and potential distortions depending on camera movement. Furthermore, due to its implicit modeling of 3D space, the output may be limited to videos in the 2D domain, potentially reducing their versatility. In this paper, we propose representing a complete 3D space for dynamic scene video by modeling explicit representations, specifically 4D Gaussians, from a single image. The framework is focused on optimizing 3D Gaussians by generating multi-view images from a single image and creating 3D motion to optimize 4D Gaussians. The most important part of proposed framework is consistent 3D motion estimation, which estimates common motion among multi-view images to bring the motion in 3D space closer to actual motions. As far as we know, this is the first attempt that considers animation while representing a complete 3D space from a single landscape image. Our model demonstrates the ability to provide realistic immersion in various landscape images through diverse experiments and metrics. Extensive experimental results are https://cvsp-lab.github.io/ICLR2025_3D-MOM/.