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AI-Based Smart Traffic Management System

A YOLO-based vision system that counts vehicles per lane from traffic-camera feeds, dynamically retimes signals by lane density, and gives emergency vehicles priority override — smart-city framing examiners love, with no modern seller version on the market.

Illustrative mockup of the AI-Based Smart Traffic Management System dashboard.
More project photos (2)

The problem

Fixed-timer traffic signals are dumb: an empty lane gets 60 seconds of green while a jammed lane waits. This project makes signals intelligent — a YOLO model counts vehicles per lane from camera feeds, a control algorithm retimes the green phases by live density, and emergency vehicles get priority override. It's smart-city framing that examiners love, it cross-sells to both CSE (computer vision) and ECE (IoT signals) audiences, and the only seller page in the market is an ancient density-controller listing. The demo — a 4-way junction simulation responding live to traffic — is pure viva theater.

How it works

  1. YOLOv8 processes each lane's camera feed (or recorded traffic video) and counts vehicles by class in real time.
  2. The density engine converts per-lane counts into a demand score every cycle.
  3. The signal controller allocates green time proportionally to demand, with minimum/maximum phase guards for fairness.
  4. An emergency-vehicle trigger forces an immediate green corridor along its route.
  5. The dashboard visualizes the junction, live counts, signal states, and the throughput improvement over fixed timing.

Project features

  • YOLOv8 vehicle detection and per-lane counting from camera or video feeds
  • Dynamic signal-timing algorithm: green duration proportional to lane density
  • 4-way junction simulation with live signal states and vehicle queues
  • Emergency-vehicle priority override (simulated ambulance detection path)
  • IoT dashboard with per-lane counts, signal timers, and throughput graphs
  • Vehicle classification: cars, bikes, buses, trucks counted separately
  • Congestion alerts when a lane crosses the saturation threshold
  • Before/after comparison mode: fixed-timer vs AI-timed throughput statistics

What is included

  • Complete source code (detection, controller, dashboard)
  • Pre-trained YOLOv8 weights tuned for Indian traffic scenes
  • Project report PDF (synopsis, literature on intelligent transport systems, methodology, results, conclusion)
  • Presentation PPT for review/demo day
  • Viva Q&A sheet covering YOLO, object tracking, control algorithms, and smart-city framing
  • Setup guide (dependencies, defining lane ROIs, running the simulation)

Limitations & prerequisites

  • Demo runs on recorded traffic video or webcam simulation; mounting real intersection cameras needs municipal permission and is out of scope
  • Detection accuracy drops in heavy rain, night footage, or severe occlusion — documented with mitigation notes
  • Emergency-vehicle detection is simulated via a trigger input; real siren/vision-based EV detection is discussed as future work
  • Signal-timing gains depend on traffic patterns; the report shows honest before/after numbers
Components & software requirements
  • Python 3.10+
  • YOLOv8 / Ultralytics (vehicle detection)
  • OpenCV (video pipeline, lane ROI definition)
  • NumPy (density computation)
  • Flask/FastAPI + WebSocket (dashboard backend)
  • HTML/CSS/JS dashboard (junction visualization)
  • Sample traffic videos + simulation mode for hardware-free demo

Download abstract (PDF)

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