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Published on: May 2, 2019
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DisAVR: Disentangled Adaptive Visual Reasoning Network for Diagram Question Answering
Summary
This study introduces a novel network for Diagram Question Answering (DQA) that improves diagram understanding and reasoning. The Disentangled Adaptive Visual Reasoning Network (DisAVR) enhances visual semantic ambiguity handling for accurate DQA.
Area of Science:
- Computer Science
- Artificial Intelligence
- Machine Learning
Background:
- Diagram Question Answering (DQA) requires both diagram understanding and reasoning.
- Visual semantic ambiguity in diagrams poses challenges for representation and understanding.
- Content-rich diagrams necessitate flexible and adaptive reasoning for diverse questions.
Purpose of the Study:
- To propose a novel network, Disentangled Adaptive Visual Reasoning Network (DisAVR), for Diagram Question Answering (DQA).
- To jointly optimize the dual processes of representation and reasoning in DQA.
- To address visual semantic ambiguity and enable adaptive reasoning on diagrams.
Main Methods:
- Developed an improved region feature learning module integrating patch, text, and region features.
- Implemented a question parsing module to guide reasoning with region, spatial, and semantic information.
- Designed a disentangled adaptive reasoning module with visual reasoning cells and an adaptive routing mechanism.
Main Results:
- The proposed DisAVR network effectively handles visual semantic ambiguity in diagrams.
- The adaptive routing mechanism allows for flexible exploration of optimal reasoning paths.
- Experiments on three DQA datasets demonstrate the superiority of the DisAVR model.
Conclusions:
- Disentangled Adaptive Visual Reasoning Network (DisAVR) offers a superior approach to Diagram Question Answering (DQA).
- The model's ability to jointly optimize representation and reasoning enhances performance on complex diagrams.
- DisAVR effectively addresses challenges related to visual semantic ambiguity and adaptive reasoning.
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