M4V: Multi-Modal Mamba for Text-to-Video Generation

Fuente: arXiv
Saved in:
Bibliographic Details
Main Authors: Huang, Jiancheng, Zhang, Gengwei, Jie, Zequn, Jiao, Siyu, Qian, Yinlong, Chen, Ling, Wei, Yunchao, Ma, Lin
Format: Preprint
Published: 2025
Subjects:
Online Access:
Tags: Add Tag
No Tags, Be the first to tag this record!
_version_ 1866909647114338304
author Huang, Jiancheng
Zhang, Gengwei
Jie, Zequn
Jiao, Siyu
Qian, Yinlong
Chen, Ling
Wei, Yunchao
Ma, Lin
author_facet Huang, Jiancheng
Zhang, Gengwei
Jie, Zequn
Jiao, Siyu
Qian, Yinlong
Chen, Ling
Wei, Yunchao
Ma, Lin
contents Text-to-video generation has significantly enriched content creation and holds the potential to evolve into powerful world simulators. However, modeling the vast spatiotemporal space remains computationally demanding, particularly when employing Transformers, which incur quadratic complexity in sequence processing and thus limit practical applications. Recent advancements in linear-time sequence modeling, particularly the Mamba architecture, offer a more efficient alternative. Nevertheless, its plain design limits its direct applicability to multi-modal and spatiotemporal video generation tasks. To address these challenges, we introduce M4V, a Multi-Modal Mamba framework for text-to-video generation. Specifically, we propose a multi-modal diffusion Mamba (MM-DiM) block that enables seamless integration of multi-modal information and spatiotemporal modeling through a multi-modal token re-composition design. As a result, the Mamba blocks in M4V reduce FLOPs by 45% compared to the attention-based alternative when generating videos at 768$\times$1280 resolution. Additionally, to mitigate the visual quality degradation in long-context autoregressive generation processes, we introduce a reward learning strategy that further enhances per-frame visual realism. Extensive experiments on text-to-video benchmarks demonstrate M4V's ability to produce high-quality videos while significantly lowering computational costs. Code and models will be publicly available at https://huangjch526.github.io/M4V_project.
format Preprint
id arxiv_https___arxiv_org_abs_2506_10915
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle M4V: Multi-Modal Mamba for Text-to-Video Generation
Huang, Jiancheng
Zhang, Gengwei
Jie, Zequn
Jiao, Siyu
Qian, Yinlong
Chen, Ling
Wei, Yunchao
Ma, Lin
Computer Vision and Pattern Recognition
Artificial Intelligence
Machine Learning
Text-to-video generation has significantly enriched content creation and holds the potential to evolve into powerful world simulators. However, modeling the vast spatiotemporal space remains computationally demanding, particularly when employing Transformers, which incur quadratic complexity in sequence processing and thus limit practical applications. Recent advancements in linear-time sequence modeling, particularly the Mamba architecture, offer a more efficient alternative. Nevertheless, its plain design limits its direct applicability to multi-modal and spatiotemporal video generation tasks. To address these challenges, we introduce M4V, a Multi-Modal Mamba framework for text-to-video generation. Specifically, we propose a multi-modal diffusion Mamba (MM-DiM) block that enables seamless integration of multi-modal information and spatiotemporal modeling through a multi-modal token re-composition design. As a result, the Mamba blocks in M4V reduce FLOPs by 45% compared to the attention-based alternative when generating videos at 768$\times$1280 resolution. Additionally, to mitigate the visual quality degradation in long-context autoregressive generation processes, we introduce a reward learning strategy that further enhances per-frame visual realism. Extensive experiments on text-to-video benchmarks demonstrate M4V's ability to produce high-quality videos while significantly lowering computational costs. Code and models will be publicly available at https://huangjch526.github.io/M4V_project.
title M4V: Multi-Modal Mamba for Text-to-Video Generation
topic Computer Vision and Pattern Recognition
Artificial Intelligence
Machine Learning
url https://arxiv.org/abs/2506.10915