Towards Governance-Oriented Low-Altitude Intelligence: A Management-Centric Multi-Modal Benchmark With Implicitly Coordinated Vision-Language Reasoning Framework
Hao Chang, Zhihui Wang, Lingxiang Wu, Peijin Wang, Wenhui Diao, Jinqiao Wang
TL;DR
This work addresses governance-oriented reasoning in low-altitude urban scenes by shifting from exhaustive object detection to selective anomaly understanding. It introduces GovLA-10K, a multimodal dataset focusing on nine functionally salient governance targets, and GovLA-Reasoner, a lightweight feature adapter that implicitly coordinates visual grounding with LLM-based reasoning. The method achieves significant gains without fine-tuning detectors or LLMs and demonstrates robustness and deployment efficiency. Together, GovLA-10K and GovLA-Reasoner establish a practical foundation for governance-aware aerial intelligence and open avenues for future research in management-oriented vision–language systems.
Abstract
Low-altitude vision systems are becoming a critical infrastructure for smart city governance. However, existing object-centric perception paradigms and loosely coupled vision-language pipelines are still difficult to support management-oriented anomaly understanding required in real-world urban governance. To bridge this gap, we introduce GovLA-10K, the first management-oriented multi-modal benchmark for low-altitude intelligence, along with GovLA-Reasoner, a unified vision-language reasoning framework tailored for governance-aware aerial perception. Unlike existing studies that aim to exhaustively annotate all visible objects, GovLA-10K is deliberately designed around functionally salient targets that directly correspond to practical management needs, and further provides actionable management suggestions grounded in these observations. To effectively coordinate the fine-grained visual grounding with high-level contextual language reasoning, GovLA-Reasoner introduces an efficient feature adapter that implicitly coordinates discriminative representation sharing between the visual detector and the large language model (LLM). Extensive experiments show that our method significantly improves performance while avoiding the need of fine-tuning for any task-specific individual components. We believe our work offers a new perspective and foundation for future studies on management-aware low-altitude vision-language systems.
