Vision Technologies with Applications in Traffic Surveillance Systems: A Holistic Survey

📅 2024-11-30
🏛️ arXiv.org
📈 Citations: 0
Influential: 0
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🤖 AI Summary
Existing surveys on traffic surveillance systems (TSS) are fragmented, lacking a unified framework that bridges low-level perception (e.g., detection, tracking) and high-level understanding (e.g., parameter estimation, anomaly detection, behavior interpretation), while overlooking paradigm shifts driven by foundation models. Method: We propose the first holistic “low-level → high-level” visual perception framework for TSS, systematically identifying and analyzing five fundamental bottlenecks: perceptual degradation, strong data dependency, weak semantic understanding, limited coverage, and high computational cost. Through comprehensive evaluation of foundation models—including ViT, CLIP, and diffusion models—in zero-shot learning, cross-modal semantic alignment, and scene generation, we construct a structured technology roadmap. Contribution/Results: Our work provides cross-task benchmarking, clarifies key challenges and viable integration pathways for foundation models in TSS, and delivers both theoretical foundations and practical guidelines for next-generation intelligent traffic perception systems.

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📝 Abstract
Traffic Surveillance Systems (TSS) have become increasingly crucial in modern intelligent transportation systems, with vision-based technologies playing a central role for scene perception and understanding. While existing surveys typically focus on isolated aspects of TSS, a comprehensive analysis bridging low-level and high-level perception tasks, particularly considering emerging technologies, remains lacking. This paper presents a systematic review of vision-based technologies in TSS, examining both low-level perception tasks (object detection, classification, and tracking) and high-level perception applications (parameter estimation, anomaly detection, and behavior understanding). Specifically, we first provide a detailed methodological categorization and comprehensive performance evaluation for each task. Our investigation reveals five fundamental limitations in current TSS: perceptual data degradation in complex scenarios, data-driven learning constraints, semantic understanding gaps, sensing coverage limitations and computational resource demands. To address these challenges, we systematically analyze five categories of potential solutions: advanced perception enhancement, efficient learning paradigms, knowledge-enhanced understanding, cooperative sensing frameworks and efficient computing frameworks. Furthermore, we evaluate the transformative potential of foundation models in TSS, demonstrating their unique capabilities in zero-shot learning, semantic understanding, and scene generation. This review provides a unified framework bridging low-level and high-level perception tasks, systematically analyzes current limitations and solutions, and presents a structured roadmap for integrating emerging technologies, particularly foundation models, to enhance TSS capabilities.
Problem

Research questions and friction points this paper is trying to address.

Lacks comprehensive framework for low-high level traffic vision tasks
Identifies five key limitations in current traffic surveillance systems
Proposes integrating foundation models to enhance traffic surveillance capabilities
Innovation

Methods, ideas, or system contributions that make the work stand out.

Systematic review of vision technologies in TSS
Advanced perception enhancement for complex scenarios
Integration of foundation models for zero-shot learning
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