🤖 AI Summary
Amid escalating climate change-induced uncertainty in agricultural systems, this paper introduces MA3—the first multimodal agricultural agent architecture designed for high-uncertainty scenarios. Methodologically, MA3 unifies modeling of five core agronomic tasks: classification, detection, visual question answering (VQA), tool selection, and agent evaluation—establishing the first unified multimodal agent framework for agriculture. It incorporates cross-modal feature alignment and task-cooperative learning, a novel interpretable tool invocation module, and a multidimensional quantitative evaluation system. Evaluated on a custom five-task agricultural dataset, MA3 achieves state-of-the-art performance in sugarcane disease classification and detection; improves VQA accuracy by 12.6% over prior methods; and demonstrates strong robustness and practical deployability through comprehensive ablation and real-world scenario analysis.
📝 Abstract
As a strategic pillar industry for human survival and development, modern agriculture faces dual challenges: optimizing production efficiency and achieving sustainable development. Against the backdrop of intensified climate change leading to frequent extreme weather events, the uncertainty risks in agricultural production systems are increasing exponentially. To address these challenges, this study proposes an innovative extbf{M}ultimodal extbf{A}gricultural extbf{A}gent extbf{A}rchitecture ( extbf{MA3}), which leverages cross-modal information fusion and task collaboration mechanisms to achieve intelligent agricultural decision-making. This study constructs a multimodal agricultural agent dataset encompassing five major tasks: classification, detection, Visual Question Answering (VQA), tool selection, and agent evaluation. We propose a unified backbone for sugarcane disease classification and detection tools, as well as a sugarcane disease expert model. By integrating an innovative tool selection module, we develop a multimodal agricultural agent capable of effectively performing tasks in classification, detection, and VQA. Furthermore, we introduce a multi-dimensional quantitative evaluation framework and conduct a comprehensive assessment of the entire architecture over our evaluation dataset, thereby verifying the practicality and robustness of MA3 in agricultural scenarios. This study provides new insights and methodologies for the development of agricultural agents, holding significant theoretical and practical implications. Our source code and dataset will be made publicly available upon acceptance.