Efficient and Scalable Models for Long-Duration Video Understanding

The recent advancements in video understanding and multimodal learning have significantly pushed the boundaries of what is possible with large-scale data processing and complex model architectures. The field is witnessing a shift towards more efficient and scalable models that can handle long-duration and high-resolution videos, addressing the inherent challenges of memory and computational demands. Innovations like the integration of State Space Models within transformer frameworks and the introduction of gradient checkpointing techniques are paving the way for linear scaling in both time and memory, enabling the processing of extensive video sequences on a single GPU. Additionally, there is a growing emphasis on creating comprehensive benchmarks that incorporate multi-modal data, including vision, audio, and language, to enhance the understanding of video content at a fine-grained level. These benchmarks are crucial for training models that can perceive and interpret omni-modal information, thereby advancing the field of video understanding. Furthermore, the development of novel data augmentation and distillation techniques is being explored to reduce redundancies in video datasets, making AI model training more efficient. The introduction of semantic attention learning and progress-aware video captioning is also contributing to more nuanced and temporally precise video understanding. Overall, the field is moving towards more integrated, efficient, and precise models that can handle the complexities of long-duration and multi-modal video data, with a focus on reducing computational overhead and enhancing the quality of understanding.

Noteworthy papers include 'Look Every Frame All at Once: Video-Ma$^2$mba for Efficient Long-form Video Understanding with Multi-Axis Gradient Checkpointing,' which introduces a novel architecture that scales linearly in terms of time and memory, and 'LongVALE: Vision-Audio-Language-Event Benchmark Towards Time-Aware Omni-Modal Perception of Long Videos,' which presents a comprehensive benchmark for omni-modal video understanding.

Sources

Look Every Frame All at Once: Video-Ma$^2$mba for Efficient Long-form Video Understanding with Multi-Axis Gradient Checkpointing

LongVALE: Vision-Audio-Language-Event Benchmark Towards Time-Aware Omni-Modal Perception of Long Videos

A Survey of Recent Advances and Challenges in Deep Audio-Visual Correlation Learning

Video Set Distillation: Information Diversification and Temporal Densification

VISTA: Enhancing Long-Duration and High-Resolution Video Understanding by Video Spatiotemporal Augmentation

SEAL: Semantic Attention Learning for Long Video Representation

Progress-Aware Video Frame Captioning

AV-Odyssey Bench: Can Your Multimodal LLMs Really Understand Audio-Visual Information?

Temporally Consistent Dynamic Scene Graphs: An End-to-End Approach for Action Tracklet Generation

Video LLMs for Temporal Reasoning in Long Videos

Inst-IT: Boosting Multimodal Instance Understanding via Explicit Visual Prompt Instruction Tuning

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