Jinxin Shi
2026
FlowSearch: Advancing Deep Research with Dynamic Structured Knowledge Flow
Yusong Hu | Runmin Ma | Yue Fan | Jinxin Shi | Zongsheng Cao | Yuhao Zhou | Jiakang Yuan | Shuaiyu Zhang | Shiyang Feng | Xiangchao Yan | Shufei Zhang | Wenlong Zhang | Lei Bai | Bo Zhang
Proceedings of the 64th Annual Meeting of the Association for Computational Linguistics (Volume 1: Long Papers)
Yusong Hu | Runmin Ma | Yue Fan | Jinxin Shi | Zongsheng Cao | Yuhao Zhou | Jiakang Yuan | Shuaiyu Zhang | Shiyang Feng | Xiangchao Yan | Shufei Zhang | Wenlong Zhang | Lei Bai | Bo Zhang
Proceedings of the 64th Annual Meeting of the Association for Computational Linguistics (Volume 1: Long Papers)
Deep research is an inherently challenging task that demands both breadth and depth of thinking. It involves navigating diverse knowledge spaces and reasoning over complex, multi-step dependencies, which presents substantial challenges for agentic systems. To address this, we propose FlowSearch, a multi-agent framework that actively constructs and evolves a dynamic structured knowledge flow to drive subtask execution and reasoning. FlowSearch is capable of strategically planning and expanding the knowledge flow to enable parallel exploration and hierarchical task decomposition, while also adjusting the knowledge flow in real time based on feedback from intermediate reasoning outcomes and insights. FlowSearch achieves competitive performance on both general and scientific benchmarks, including GAIA, HLE, GPQA and TRQA, demonstrating its effectiveness in multi-disciplinary research scenarios and its potential to advance scientific discovery. The code will be available.
2025
RMoA: Optimizing Mixture-of-Agents through Diversity Maximization and Residual Compensation
Zhentao Xie | Chengcheng Han | Jinxin Shi | Wenjun Cui | Xin Zhao | Xingjiao Wu | Jiabao Zhao
Findings of the Association for Computational Linguistics: ACL 2025
Zhentao Xie | Chengcheng Han | Jinxin Shi | Wenjun Cui | Xin Zhao | Xingjiao Wu | Jiabao Zhao
Findings of the Association for Computational Linguistics: ACL 2025
Although multi-agent systems based on large language models show strong capabilities on multiple tasks, they are still limited by high computational overhead, information loss, and robustness. Inspired by ResNet’s residual learning, we propose Residual Mixture-of-Agents (RMoA), integrating residual connections to optimize efficiency and reliability. To maximize information utilization from model responses while minimizing computational costs, we innovatively design an embedding-based diversity selection mechanism that greedily selects responses via vector similarity. Furthermore, to mitigate iterative information degradation, we introduce a Residual Extraction Agent to preserve cross-layer incremental information by capturing inter-layer response differences, coupled with a Residual Aggregation Agent for hierarchical information integration. Additionally, we propose an adaptive termination mechanism that dynamically halts processing based on residual convergence, further improving inference efficiency. RMoA achieves state-of-the-art performance on the benchmarks of across alignment, mathematical reasoning, code generation, and multitasking understanding, while significantly reducing computational overhead. Code is available at https://github.com/mindhunter01/RMoA.