Challenge: Long video understanding presents unique challenges due to the complexity of reasoning over extended timespans.
Approach: They propose a framework VideoINSTA to leverage large language models for video understanding . they propose 'event-based temporalreasoning' and 'content-based spatial reasoning'
Outcome: The proposed model significantly improves state-of-the-art on three long video question-answering benchmarks.

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TemporalVLM: Video LLMs for Temporal Reasoning in Long Videos (2026.findings-acl)

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Challenge: Several video understanding applications require the ability of temporal reasoning.
Approach: They propose a video large language model for temporal reasoning and fine-grained understanding in long videos.
Outcome: The proposed model outperforms existing methods in time and motion studies and temporal action segmentation evaluations.
Detecting and Mitigating Challenges in Zero-Shot Video Summarization with Video LLMs (2025.findings-acl)

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Challenge: Video Large Language Models (VLLMs) exhibit impressive zero-shot capabilities in video analysis, but their performance varies significantly depending on the LLM prompt, the characteristics of the video, and the properties of the training data and LLM architecture.
Approach: They propose to use Chain-of-Thought prompting to inject knowledge extracted by external, lightweight models into video summarization benchmarks to evaluate their performance.
Outcome: The proposed solutions improve summarization performance by injecting knowledge extracted by external, lightweight models.
VideoPASTA: 7K Preference Pairs That Matter for Video-LLM Alignment (2025.emnlp-main)

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Challenge: Video-language models excel at understanding video content but struggle with spatial relationships, temporal ordering, and cross-frame continuity.
Approach: They propose a framework that trains video-LLMs to distinguish accurate representations from carefully crafted adversarial examples.
Outcome: Experiments show that VideoPASTA improves performance without human annotation or captioning . the framework can be used on various state-of-the-art video-LLMs with no human annotation .
Enhancing Temporal Modeling of Video LLMs via Time Gating (2024.findings-emnlp)

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Challenge: Existing Video Large Language Models neglect temporal information in video data, leading to struggles with temporal-aware video understanding.
Approach: They propose a Time Gating Video LLM (TG-Vid) that employs a time gating module to enhance temporal modeling.
Outcome: The proposed model outperforms existing Large Language Models on video-and-language tasks and ablation studies show that the model outpersforms the existing models.
Mitigating the Discrepancy Between Video and Text Temporal Sequences: A Time-Perception Enhanced Video Grounding method for LLM (2025.coling-main)

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Challenge: Existing video LLMs excel at capturing the overall description of a video but lack the ability to demonstrate an understanding of temporal dynamics and localized content within the video.
Approach: They propose a Time-Perception Enhanced Video Grounding via Boundary Perception and Temporal Reasoning to improve LLMs' understanding of video temporality.
Outcome: The proposed method improves on three datasets: ActivityNet, Charades, and DiDeMo (up to 11.2% improvement on R@0.3).
VideoQA-TA: Temporal-Aware Multi-Modal Video Question Answering (2025.coling-main)

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Challenge: Existing methods for video question answering align visual or textual features directly with large language models, limiting the deep semantic association between modalities and hindering a comprehensive understanding of interactions within spatial and temporal contexts.
Approach: They propose a temporal-aware framework for multi-modal video question answering that aligns videos and questions at fine-grained levels.
Outcome: The proposed framework improves reasoning ability and accuracy of videoQA by aligning videos and questions at fine-grained levels.
VideoPro: Adaptive Program Reasoning for Long Video Understanding (2026.acl-long)

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Challenge: Existing methods for understanding long videos are limited due to the sparsity of visual evidence relevant to a given query.
Approach: They propose a framework that enables VideoLLMs to reason over long videos and refine their predictions through executable programs.
Outcome: The proposed framework outperforms existing methods across long-video understanding benchmarks.
VideoMind: Thinking in Steps for Long Video Understanding (2026.eacl-industry)

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Challenge: Multimodal Large Language Models struggle with Long Video Understanding due to their limited context window and the distributed nature of salient information across many redundant frames.
Approach: They propose a training framework that mimics a human reasoning process to train Long Video Understanding models.
Outcome: The proposed framework achieves 77.6% performance on Video MME, LongVideo, and MLVU benchmarks while yielding 5% improvement on Llama 4 Scout.
TempCompass: Do Video LLMs Really Understand Videos? (2024.findings-acl)

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Challenge: Existing benchmarks on video large language models lack a comprehensive feedback on temporal perception ability . current models cannot distinguish between different temporal aspects and are limited in task formats .
Approach: They propose a benchmark to evaluate temporal perception ability of video large language models . they construct conflicting videos that share the same static content but differ in a specific temporal aspect .
Outcome: The proposed benchmarks show that video large language models exhibit poor temporal perception ability.
A Video Is Worth 4096 Tokens: Verbalize Videos To Understand Them In Zero Shot (2023.emnlp-main)

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Challenge: Existing annotated training datasets hinder development of supervised learning models for multimedia content . lack of annotating benchmarks hinders development of models with satisfactory performance . a recent study shows that large language models have zero-shot performance in multimedia understanding .
Approach: They propose to verbalize long videos to generate their descriptions in natural language . they then perform video-understanding tasks on the generated story as opposed to the original video .
Outcome: The proposed method achieves better results than baselines for video understanding.

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