Building the Remote-Controlled Unmanned Vehicle: a Revolutionary IoT Project

This instructable records the journey of creating a one-of-a-kind Remote-Controlled Unmanned Vehicle. Designed to demonstrate the potential of IoT, this project is tailored for situations where human access is challenging or risky, such as hazardous environments, disaster zones, or even healthcare during a pandemic.

Wi - Fi capable module

Camera

Tires

Motors

Main Board with many pins for handling main functions

LCD Screen

Batteries

Motor Driver

Buzzer

The project began with a clear goal: to build a compact, versatile, and cost-effective solution for remote monitoring and communication. The idea was to create something that could operate effectively in dangerous or hard-to-reach places while maintaining simplicity in design and usability.

Remote Operation: Can be controlled both locally and globally using a web interface.

Real-Time Video Streaming: Provides live visuals to assess environments remotely.

Communication Hub: Includes a messaging feature for sending updates or instructions.

Dual-Mode Functionality: Operates in both standalone and internet-connected modes.

Adaptability: Designed to be lightweight, robust, and capable of traversing uneven surfaces.

Dual Camera Streaming - Providing video stream from both the front and the rear.

This vehicle is not just an academic project—it has real-world applications that address significant challenges:

1. Disaster Relief: Helps assess disaster-struck areas, reducing risks to first responders.
2. Healthcare in Pandemics: Safely delivers medical supplies, monitors patients remotely, or communicates with isolated individuals.
3. Industrial Surveillance: Inspects large or hazardous facilities, minimizing worker exposure.
4. Hazardous Environments: Navigates toxic or dangerous zones for inspections or monitoring.
5. Rural Connectivity: Acts as a mobile communication unit, extending reach to remote areas.

The vehicle's construction focused on integrating components into a cohesive, user-friendly system. The chassis was designed to house the hardware securely while ensuring mobility over various terrains. The onboard system operates in two modes:

1. Access Point Mode: Creates a local network for control without needing external internet.
2. Station Mode: Connects to an existing network for global access.

The web interface simplifies operation, offering features such as directional control, video streaming, messaging, and a flashlight toggle for low-light conditions.

To enhance the project’s utility, future modifications include:

1. Solar Panels: For eco-friendly power, especially in sunny regions.
2. Waterproofing: To enable operation in wet environments.
3. GPS Integration: For navigation and location tracking.
4. Cellular Control and Communication: Controlling the car through SMS or finding its location, also enabling calling to communicate with people who need help.

This unmanned vehicle isn't just a technical achievement; it's a practical solution to real-world problems. From aiding in disaster recovery to supporting healthcare during pandemics, it embodies the potential of IoT technology to make a tangible difference.

By documenting this project, I aim to establish its originality and inspire others to explore innovative applications of IoT in their fields. This instructable is a testament to creativity, problem-solving, and the drive to create meaningful technology for a better future.

This project was made by @anujdeore88 and @vivek95