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Robot Application

Educational Research Platform

Speed up breakthroughs in academia and validation with a flexible robotic setup focused on reliable data. It connects lab algorithms to the real world, making experiments repeatable for students and researchers.

Educational Research Platform

Why Automate Educational Research?

Cost-Effective Scalability

Cut the hassle of physical setups. One platform runs countless sim-to-real tests—no custom rigs needed per student.

Reproducible Data

Ditch human errors in data grabs. Robots stick to exact paths and sensor routines for consistent, apples-to-apples datasets.

Modular Hardware

Swap sensors or grippers in minutes. Tackle everything from vision to eco-monitoring on the same base.

ROS 2 Native

Built on reliable open-source tech stacks. Students get real hands-on experience with pro tools like navigation stacks and MoveIt.

Remote Labs

Access hardware from anywhere remotely. Researchers can push code no matter where they are, making global collaboration effortless.

Publication Ready

Automatically generate detailed logs and visuals. Outputs in CSV or ROSbag formats, ready to drop into research papers.

Architecture & Workflow

The Educational Research Platform uses a smart layered design to separate motor basics from high-level tasks, letting you refine algorithms without hardware hassles.

1. Sensing & Perception:

2. On-board Processing:

3. Data Telemetry:

Educational Research Platform Workflow

Where It's Used

Computer Science Departments

Powers grad robotics classes to test ML models and path planning in real hallways, not just simulations.

Agricultural Tech Research

Outfitted with multispectral cameras for crop row navigation, capturing phenotype data and testing harvest strategies on a small scale.

Psychology & HRI

HRI research leverages it to measure human reactions to robot movements, proximity, and paths in shared spaces.

Civil Engineering

Deploys autonomous rovers to map indoor areas, generate BIM models, or detect structural issues using thermal cameras.

What You Need

  • Robot Base Differential drive or Mecanum chassis with encoders
  • Compute Unit NVIDIA Jetson Orin // Raspberry Pi 5 (min 8GB RAM)
  • Sensors 2D/3D LiDAR, RGB-D Camera, 9-axis IMU
  • Software Stack Ubuntu 22.04 LTS, ROS 2 Humble/Iron
  • Connectivity Dual-band Wi-Fi 6 for telemetry, Optional 5G module

Frequently Asked Questions

Is this platform compatible with ROS 1?

Works with ROS 1 Noetic, but our stack and guides focus on ROS 2 (Humble+) for the latest best practices. ROS 1 bridge included for legacy setups.

Can we mount custom sensors?

Sure. Standard rails and USB 3.0/GPIO ports make adding custom gear—like air sensors or thermals—a total breeze.

What programming languages are supported?

Python and C++ power the ROS core. Plus a REST API for easy web or JS control at a higher level.

Is the platform safe for crowded classrooms?

Yes. Hardware e-stops and software avoidance halt motors instantly if anything enters the safety zone.

How long does the battery last?

Standard sensors deliver 6-8 hours from the LiFePO4 pack. Hot-swap for nonstop testing.

Does it come with simulation support?

Yep, full 'Digital Twin' in Gazebo and Isaac Sim. Code transfers seamlessly from sim to robot.

What is the payload capacity?

Base chassis handles up to 15kg extra payload, perfect for arms or heavy sensors.

Is there curriculum material included?

Semester-ready curriculum: odometry, PID, SLAM, nav—with labs and answers for teachers.

Can it operate outdoors?

Standard model shines on indoor flats. All-Terrain upgrade brings bigger wheels and IP54 for outdoor farms or campus terrain.

How is data extracted?

Stream via Wi-Fi, save to onboard SSD as Rosbag, or auto-upload to AWS/Azure after missions.

Ready to Implement Your Educational Research Platform?

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