Summary
Next Forcing is a multi-chunk prediction (MCP) framework for causal world modeling, presented by Gangwei Xu and colleagues in arXiv paper 2606.11187. Autoregressive video generation has become a powerful paradigm for World Action Models (WAMs), but existing approaches suffer from slow training convergence, limited converged accuracy at high frame rates (because supervision is confined to the current chunk without explicit signals about future dynamics), and slow inference due to iterative video denoising. Inspired by multi-token prediction in large language models, Next Forcing augments the main model with lightweight auxiliary MCP modules that simultaneously denoise video chunks across multiple future time scales. These modules form a causal chain across prediction depths, leveraging intermediate features from the main model's multi-layer fusion to predict future dynamics. According to the forum summary, the method achieves state-of-the-art results on RoboTwin (94.1/93.5%) with 2x inference speedup. Released June 9, 2026, in the computer vision field.
Paper Overview
Field: CV
Authors: Gangwei Xu, Qihang Zhang, Jiaming Zhou, Xing Zhu, Yujun Shen, Xin Yang, Yinghao Xu
Published: 2026-06-09
arXiv: 2606.11187
Summary
Next Forcing proposes a multi-chunk prediction (MCP) framework for causal world modeling, enabling faster training, higher accuracy, and accelerated inference.
Motivation. Autoregressive video generation has emerged as a powerful paradigm for World Action Models (WAMs). However, existing approaches suffer from:
- Slow training convergence and limited converged accuracy, particularly at high frame rates, since training supervision is confined to the current chunk without explicit signals about future dynamics
- Slow inference due to iterative video denoising
Method. Inspired by multi-token prediction in large language models, Next Forcing introduces an MCP training objective that augments the main model with lightweight auxiliary MCP modules to simultaneously denoise video chunks across multiple future time scales. The MCP modules form a causal chain across prediction depths, exploiting intermediate features from the main model's multi-layer fusion to predict future dynamics.
Results. The method achieves state-of-the-art performance on RoboTwin (94.1/93.5%) with 2x inference acceleration.
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*Auto-collected 2026-06-11*
Original source: arXiv:2606.11187
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