Now enrolling · Ages 13–17

Build robots that
think for themselves.

Robotics + AI Classes for Teens

RoboLab teaches teenagers how to build and program real robots — combining hands-on hardware with modern AI. Ages 13–17. Expert-led. No experience needed.

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4.9/5 Parent rating
AI+ Every level

The capstone

Find a problem.
Ship a solution.

The final project isn't a competition or a demo day. Students go out into the world, find one person with a real problem, build a robotics or AI solution, and deliver it to them. The bar is simple: does it work for a real human?

1 Real user
0 Simulations
Ship Or it doesn't count
Real Problem sourced by student
FIND problem BUILD solution SHIP to 1 person
Student sources, builds, and ships — all three
Curriculum projects

Robotics + AI projects
built throughout

Lessons are adapted to each student's interests. These are the projects in our library — your child works through the ones that fit them.

Robotics Projects Mechanics · Electronics · Systems
Unit 2 · Mechanical
Custom Robot Chassis

Full CAD design in Fusion 360, 3D printed, assembled by hand. Students specify tolerances, pick fasteners, and revise based on load testing.

Unit 3 · Electronics
Line Following Robot

IR sensor array + PID control loop. Tracks a taped line at increasing speeds. First real closed-loop control system students build.

Unit 3 · Electronics
Encoder Odometry Bot

Wheel encoders + dead reckoning to navigate precise distances and angles. Students fuse encoder data with IMU readings using a Kalman filter — same technique in real autonomous vehicles.

Unit 4 · Programming
Obstacle Avoider

Ultrasonic ranging + state machine logic. Navigates a cluttered room autonomously. Introduces real-time decision loops in Python.

Unit 5 · Capstone
Find a Problem → Ship a Solution

Source a real problem from a real person. Build a working robotics or AI solution. Ship it to that user. No simulations. A real human uses what you built.

AI Projects Vision · Learning · Intelligence
decision tree neural net AI DECISION LOGIC
Unit 1 · AI · Foundations
AI Decision Logic Bot

Build a robot controlled by decision trees, then upgrade it to a simple neural network. Students see exactly what changes — and why learned models sometimes beat hand-coded rules.

sensor fused KALMAN FILTER
Unit 3 · AI · Sensor Fusion
Kalman Filter Navigator

Fuse encoder, IMU, and ultrasonic data through a Kalman filter to produce clean position estimates. The same sensor fusion technique used in drones, autonomous cars, and spacecraft.

OBJECT CLASSIFIER
Unit 4 · AI · Computer Vision
Object Recognition Robot

Students train a small neural network using TensorFlow Lite on a Raspberry Pi camera. The robot identifies and sorts colored blocks — a real edge-AI inference pipeline built from scratch.

+R REWARD OVER TIME
Unit 5 · AI · Reinforcement Learning
RL Navigation Agent

Q-learning agent trained to navigate a simulated grid environment through trial and reward. Students then transfer the learned policy onto a physical robot — bridging simulation and reality.


Where students go

Alumni admitted to
top universities

The engineering portfolio, competition results, and technical depth students build through RoboLab opens doors at the most selective programs in the country.

University of Pennsylvania
Philadelphia, PA
School of Engineering & Applied Science
UCLA
Los Angeles, CA
Henry Samueli School of Engineering
UC Berkeley
Berkeley, CA
College of Engineering
Harvard University
Cambridge, MA
Paulson School of Engineering

Among programs where RoboLab alumni have been admitted.

AI curriculum

What AI they actually learn
not just talk about

Every AI concept is tied to a physical project. Students don't read about machine learning — they build, train, and deploy it on hardware they made.

Beginner level
AI Decision Logic

If-then rule trees and threshold logic built in Python. Students see how simple decision structures power real robot behavior — the foundation of all AI control.

Decision trees Sensor thresholds Python conditionals
Intermediate level
Computer Vision on the Edge

Train a small image classifier using TensorFlow Lite, deploy it on a Raspberry Pi camera module, and run inference in real time on the robot. Students touch every layer of a production ML pipeline.

TensorFlow Lite OpenCV Edge inference Dataset labeling
Intermediate level
Reinforcement Learning

Q-learning and policy gradients in simulation, then transferred to a physical robot. Students train an agent to navigate a grid environment and observe how reward shaping changes behavior — same principles behind AlphaGo and robotics research labs.

Q-learning Sim-to-real transfer Reward design
Advanced level
AI Path Optimization — Capstone

For the capstone project, students apply AI path optimization to navigate real-world environments — computing optimal routes, avoiding dynamic obstacles, and adapting in real time. Classical algorithms and learned AI policies working together.

Path optimization Sensor fusion Kalman filter A* + learned heuristics

Your instructor

Built drones for Mars.
Now teaching.

Instructor photo
Calvin Anderson

I'm a robotics engineer with a Master of Science from the University of Pennsylvania and a Bachelor of Science from UC San Diego. I spent years building autonomous drone systems designed to navigate Martian cave networks — and before that, I co-founded two robotics startups where I shipped real hardware for four years.

I teach because robotics, AI, and entrepreneurship are converging into the future of jobs — and the earlier you build real skills, the further ahead you land. This course is designed to give students the exact foundation I wish I'd had at their age.

  • 🎓
    M.S. Robotics — University of Pennsylvania
    Graduate School of Engineering and Applied Science, Philadelphia
  • 🎓
    B.S. — UC San Diego
    Jacobs School of Engineering, La Jolla, California
  • 🚀
    Autonomous Drones for Martian Cave Exploration
    Designed and built fully autonomous aerial systems capable of navigating GPS-denied underground environments — the kind of terrain future Mars missions will need to map.
  • ⚙️
    Two Robotics Startups — 4 Years
    Co-founded and built two hardware robotics companies from the ground up. Shipped real products, raised funding, and learned what it actually takes to make robots work outside a lab.
  • 🔬
    4 Internships — Stanford Research · Wi-Fi & Bluetooth Chips · Submarines · Data Centers
    Research internship at Stanford. Hardware engineering on Wi-Fi and Bluetooth silicon. Embedded systems work on submarine platforms. Infrastructure engineering inside large-scale data centers. Four completely different technical environments — all real.
Autonomous systems Drone navigation PID + AI control PCB design ROS Computer vision Hardware startups UPenn SEAS UCSD Jacobs
Get in touch
Questions? Reach out.
(669) 232-7006 calvins.brew@gmail.com
Frequently asked

Questions
answered

None at all. The curriculum starts from zero and progresses through mechanics, electronics, and programming in a structured sequence. The mentor assesses your child's starting level in the free trial and calibrates accordingly.
The kit includes multiple sensors (IR, ultrasonic, gyroscope, encoders), actuators (DC motors, servos), programmable microcontrollers, a breadboard, mechanical components, and all wiring. For older students building the Micromouse, PCB fabrication and a custom component list are also provided.
Very realistic — with the right structure. Finding a user and scoping the problem is week 1, not an afterthought. Students have already built functioning robots across earlier units, so the capstone is about applying those skills to a real situation, not learning new ones from scratch. The mentor guides every stage: problem validation, design choices, and integration. Most students find the problem-sourcing phase the hardest part — not the building.
Classes run 24/7 globally — you pick the slot that works for your family. Because sessions are 1-on-1, scheduling is fully flexible and can be adjusted week to week.
Absolutely — that's the goal. Mentors actively encourage students to bring their own ideas into sessions. The kit is modular by design and the skills transfer. Many students build personal projects, science fair entries, and competition robots on top of the core curriculum.
It's woven through every level, not tacked on at the end. Beginners learn AI decision logic and sensor threshold models. Intermediate students train and deploy computer vision classifiers on real hardware, and implement Q-learning agents in simulation. Advanced students apply AI path optimization to the Micromouse capstone. All of it is hands-on — students touch real ML pipelines, not just slides about them.
Students graduate with a documented GitHub repository, engineering notebook, and a physical Micromouse they built themselves. Many also have competition placements (regional, national, or international). Engineering admissions teams respond well to evidence of real technical work — not just participation certificates.

Start building.
First class is free.

No credit card required. No prior experience needed. Just curiosity and a willingness to build real things.

Book a class → Explore curriculum