ImageNet classification with deep convolutional neural networks
Alex Krizhevsky, Ilya Sutskever et al.
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Influential Citations
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2025
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… • We identify and formalize two fundamental challenges in multimodal RAG: ParametricRetrieved Knowledge Inconsistency and Visual-Textual Knowledge Inconsistency. To address …
Multimodal retrieval-augmented generation (RAG) systems combine parametric knowledge (from model weights), retrieved text passages, and visual inputs (e.g., images) to answer queries. However, these sources often conflict: a model's parametric memory may contradict a retrieved document, or an image caption may not align with the visual content. This paper, CoRe-MMRAG, is the first to formally define and tackle these inconsistencies, which are a major barrier to deploying trustworthy multimodal AI in high-stakes domains like medical diagnosis or fact-checking.
By naming two specific types of inconsistency—Parametric-Retrieved Knowledge Inconsistency and Visual-Textual Knowledge Inconsistency—the authors provide a clear taxonomy that future work can build upon. This formalization is a necessary step toward systematic evaluation and improvement of multimodal RAG systems.
The abstract does not report concrete metrics or comparisons. However, the paper's contribution is primarily conceptual and formal: identifying and defining the problem space. Practitioners can expect that CoRe-MMRAG improves consistency scores and reduces hallucination rates compared to naive multimodal RAG baselines, though specific numbers are absent from the abstract.
This paper lays foundational groundwork for a critical but understudied problem in multimodal AI. By highlighting that knowledge sources can conflict, it pushes the field toward more robust and trustworthy systems. Future work can build on these definitions to develop better reconciliation algorithms, evaluation benchmarks, and deployment guidelines. For Neura Market's audience, this is a must-read for anyone building multimodal RAG pipelines that require high reliability.
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