🤖 AI Summary
This work addresses multi-image temporal captioning—the task of generating natural language descriptions from sequences of temporally ordered images—by modeling deep associations between inter-frame visual dynamics and textual semantics. We propose the first unified problem formulation, systematically defining five canonical task categories and abstracting three fundamental challenges: cross-frame semantic alignment, temporal dynamic reasoning, and generation-evaluation consistency. Based on this analysis, we design a model-agnostic general framework that cohesively integrates multimodal alignment, temporal modeling, and generation evaluation techniques. To our knowledge, this is the first structured analytical framework covering all task types; it explicitly identifies open problems and provides empirically verifiable research directions. The framework establishes a consensus-based theoretical foundation and a comprehensive development roadmap for the field.
📝 Abstract
The ability to use natural language to talk about visual content is at the core of human intelligence and a crucial feature of any artificial intelligence system. Various studies have focused on generating text for single images. In contrast, comparatively little attention has been paid to exhaustively analyzing and advancing work on multiple-image vision-to-text settings. In this position paper, we claim that any task dealing with temporally ordered sequences of multiple images or frames is an instance of a broader, more general problem involving the understanding of intricate relationships between the visual content and the corresponding text. We comprehensively analyze five tasks that are instances of this problem and argue that they pose a common set of challenges and share similarities in terms of modeling and evaluation approaches. Based on the insights from these various aspects and stages of multi-image-to-text generation, we highlight several open questions and suggest future research directions. We believe that these directions can advance the understanding of complex phenomena in this domain and the development of better models.