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Making MLLM Latents Matter: Factor-Aware Predictive Learning for Cinematic Video Generation

Paper · arXiv 2610.30926 · daily list of October 23, 2026

Songlin Yang, Zhe Wang, Xiaotong Zhao, Xi Wang, Ran Zhang, Shuai Li and 5 more · Tencent

Collected · snapshot shipped with the site build, not a live feed

Abstract · as written by the authors

Cinematic video generation requires both temporal inference from limited inputs (i.e., sparse rather than frame-by-frame guidance) and factor-aware control of character, scene, action, and camera. Multimodal large language models (MLLMs) offer useful priors for both capabilities, but their representations are not automatically actionable for video generation: a Video Diffusion Transformer (DiT) may bypass them through native conditioning pathways, and using them does not ensure either factor-aware control or generation-compatible temporal prediction. We propose Factor-Aware Predictive Learning (FAPL), which establishes effective MLLM latent use as a shared prerequisite and then targets the two capabilities with complementary learning signals. First, latent-only generator grounding trains the DiT with a frozen MLLM and connector, strengthening the DiT's use of MLLM latents for generation. Second, for factor-aware control, paired videos specify a target-factor change and non-target preservation, and factor-span replacement trains the DiT to realize this relationship in its output. Third, for temporal inference, text-only and text-plus-complete-video observations share a video target, and the trained DiT is then frozen while the MLLM and connector are optimized through it. This final stage trains limited-input representations for generation while retaining complete-observation reconstruction as a complementary training mode. Extensive experiments demonstrate our consistently better performance on three cinematic video generation tasks (i.e., sparse-to-video, factor-aware editing, and multi-shot generation) over baselines and validate FAPL's contributions to MLLM feature use, temporal control, and factor coordination.

This is the original abstract from arXiv. It has not been summarised, translated or rewritten.

Terms in plain language

Automatic

Made by matching the words of the title and abstract against a fixed list of definitions. It does not read the paper and does not change the abstract above.

Multimodal
able to work with more than one kind of data, such as text together with images, audio or video.
large language models
an AI system trained on very large amounts of text to read and write language.
Diffusion
a way of generating data by learning to turn random noise into a clean result, step by step.
Transformer
the neural-network design behind most modern language models, where attention lets each word weigh the other words in the text.

Questions about this paper

Where can I read the full paper?

On arXiv, under the identifier 2610.30926: the abstract page is https://arxiv.org/abs/2610.30926 and the PDF is https://arxiv.org/pdf/2610.30926. The text on this page is the authors' abstract, not a summary.

Is there code for this paper?

Yes. The paper's page on Hugging Face links the repository github.com/Songlin1998/ShotVerse2.0, which had 1 stars when we collected it.

What do the upvotes mean?

165 signed-in Hugging Face users upvoted it on the daily list of October 23, 2026. Upvotes measure attention from that community, not peer review.

What are the plain-language terms under the abstract?

Short notes on the technical words of the title and abstract, in everyday English, taken from a fixed list of definitions that we wrote. They are made automatically by matching words, so a note can miss a term or give a meaning that does not fit this paper. The abstract above them is the authors’ text and is not changed.