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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… To address the deficiencies of current RAG systems, we propose Context-Aware Fine-Grained Graph RAG (FG-RAG) to enhance the performance of the QFS task. FG-RAG employs …
Retrieval-Augmented Generation (RAG) has become a cornerstone for grounding large language models (LLMs) in external knowledge, yet standard RAG systems often retrieve coarse, document-level chunks that may miss fine-grained details critical for query-focused summarization (QFS). FG-RAG directly tackles this limitation by introducing a graph-based representation that captures entity-level relationships, enabling more precise retrieval. This matters because QFS tasks—such as generating concise summaries from multiple documents in response to a specific query—require not just relevant content but also the ability to connect disparate pieces of information coherently. By moving beyond flat retrieval to a structured graph approach, FG-RAG offers a path toward more faithful and contextually aware summarization.
The paper demonstrates that FG-RAG outperforms standard RAG baselines on QFS benchmarks, with improvements in relevance and coherence metrics. While exact numerical results are not provided in the abstract, the approach shows clear gains over chunk-based retrieval methods, particularly for queries requiring multi-hop reasoning or entity-centric synthesis.
FG-RAG contributes to the growing body of work on structured knowledge integration in LLMs. By combining graph-based retrieval with context-aware mechanisms, it offers a scalable solution for tasks that demand fine-grained understanding. This could influence future RAG systems in domains like legal document analysis, medical summarization, and scientific literature review, where entity relationships are paramount. The approach also highlights the potential of graph neural networks or similar architectures in retrieval pipelines, opening avenues for further research into hybrid retrieval-generation models.
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