Skip to content

README.md

Latest commit

 

History

History
65 lines (43 loc) · 1.84 KB

README.md

File metadata and controls

65 lines (43 loc) · 1.84 KB
Raw

CS3237-RiderGuard

RiderGuard is an IoT-based motorcyclist hazard warning and accident detection system developed for CS3237 Introduction to Internet-of-Things.

Project Structure

  • RiderGuard_Left_glove/ — Left glove ESP32 firmware and sensor data publishing via MQTT.
  • RiderGuard_Right_glove/ — Right glove ESP32 firmware and sensor data publishing via MQTT.
  • cloud/ — MQTT server, dashboard, and Mosquitto broker configuration.

Running the Cloud System

Prerequisites

  • WSL Ubuntu
  • Mosquitto MQTT broker
  • Python dependencies for the cloud server and dashboard
  • MongoDB
  • ESP32 gloves configured to connect to the MQTT broker

Terminal 1 — MQTT Broker

cd /mnt/c/Users/LENOVO/CS3237-RiderGuard
sudo systemctl stop mosquitto
mosquitto -c cloud/mosquitto.conf -v

Keep this terminal open to monitor MQTT connections and incoming messages.

Terminal 2 — Python MQTT Server

cd /mnt/c/Users/LENOVO/CS3237-RiderGuard
python3 cloud/server.py --mongo

Keep this terminal open to monitor the MQTT subscription and sensor data processing.

Terminal 3 — Dashboard

cd /mnt/c/Users/LENOVO/CS3237-RiderGuard
sudo systemctl start mongod
python3 cloud/dashboard.py

Open the dashboard in your browser:

http://localhost:3237

Start the ESP32 Gloves

Once the MQTT broker and Python server are running, power on or reset both ESP32 gloves. Check the broker logs and dashboard for incoming sensor readings.

MQTT Topics

  • Left glove: riderguard/leftGloveMPU6050
  • Right glove: riderguard/rightGloveMPU6050

Troubleshooting

  • If port 1883 is already in use, check whether another Mosquitto instance is running.
  • If the dashboard reports a database connection error, check that MongoDB is running.
  • Ensure both ESP32 devices connect to the correct Wi-Fi network and MQTT broker address.