Every March 10th, or MAR10 Day, classrooms celebrate Mario, one of gaming’s most recognizable heroes. But beyond the nostalgia, Mario Day can be filled with physics, engineering, and coding concepts that make it a natural fit for engaging STEM learning activities.

Instead of students simply playing games, educators can challenge them to become engineers, mathematicians, physicists, and game designers—turning March 10 into a high-engagement STEM lab experience.

Here are some fun ideas for your Mario Day!

Launch the Star — Catapult Physics Challenge

When Mario hits a Star Block, energy launches him into action. In this activity, students recreate that moment using a classroom catapult to investigate projectile motion.

How It Works

Students become Mario engineers by launching “Power Stars” using a classroom catapult system. Begin by introducing the idea that Mario’s jumps and power-ups follow predictable physics rules. Teams adjust variables such as launch angle, pull-back distance, or projectile weight before testing their launch. Students record how far each star travels and compare results across trials.

Challenge students to hit targets like:

• Bowser’s Castle

• Coin Zones

• Safe Platforms

STEM Principles Covered

• Projectile Motion

• Force & Energy Transfer

• Gravity

• Measurement & Data Collection

• Scientific Testing

STEM Kit Suggestions

• Pathfinders Da Vinci Catapult
• Brainstorm Giant Catapult
• Thames & Kosmos Catapult Engineering
• Pathfinders Sky Surfer Plane Launcher
• TeacherGeek Ping Pong Launcher

Mario Sail Kart — Wind Powered Racing

Inspired by Mario Kart, students engineer sail-powered vehicles and race them across classroom tracks.

How It Works

Students design and test their own Mario Kart using sail-powered vehicles. After assembling the car, teams experiment with sail shape, angle, and placement to determine how airflow affects motion. Using fans or natural airflow, students race their karts across classroom tracks. Encourage learners to redesign sails between races to improve speed or stability.

Create themed tracks like:

• Rainbow Road

• Desert Drift

• Mushroom Speedway

STEM Principles Covered

• Newton’s Laws of Motion

• Aerodynamics

• Friction

• Engineering Optimization

• Experimental Design

STEM Kit Suggestions

• TeacherGeek Sail Cars
• Thames & Kosmos Physics Workshop

Run Mario Run! — Marble Run Engineering

Mario levels rely on gravity-driven motion — just like marble runs.

How It Works

Students design a gravity-powered pathway representing Mario traveling through underground pipes or castle levels. Teams build marble run systems where the marble represents Mario moving through obstacles. Students test how ramp height, curve placement, and track length affect speed and success. Learners modify their designs to ensure Mario safely reaches the goal without stopping or flying off the track.

Goal:
Guide Mario safely through the level using gravity alone.

Optional challenge:
Add “enemy zones” where timing must be carefully controlled to succeed.

STEM Principles Covered

• Potential & Kinetic Energy

• Gravity

• Motion & Speed

• Cause and Effect

• Engineering Iteration

STEM Kit Suggestions

• Thames & Kosmos Gecko Run
• Lab-Aid GraviTrax Systems
• fischertechnik PROFI Dynamic XXL

Build Your Own Mario World — Engineering Design

Students become level designers by constructing their own Mushroom Kingdom environment.

How It Works

Students work in teams to construct a physical Mario level using cardboard or makerspace materials on tables or classroom floors.

Teams design:

Platforms

Tunnels

Obstacles

Safe pathways

Once built, students program robots to travel through their world. If robots cannot complete the course, teams must identify design flaws and revise structures.

STEM Principles Covered

• Engineering Design Process

• Spatial Reasoning

• Problem Solving

• Collaboration

• Prototyping

STEM Kit Suggestions

• 3DUX Design GO-BOX
• Chompsaw Inventors Bundle
• KEVA Bot Maze
• Blockaroo Magnetic Foam Castle
• 3Doodler Start Set
• Makedo Create
• Ozobot Challenge Mat Mission to Mars

Code Your Kingdom — Program Mario’s Movement

Behind every Mario jump is precise coding logic.

How It Works

Students program a robot or coding system to move through a Mario-inspired grid world using commands such as forward, turn, pause, or jump. Start with simple movement sequences, then introduce challenges requiring precise timing or repeated actions. Students quickly learn that incorrect instructions prevent Mario from completing the level. Advanced learners may simulate Mario’s jump by adjusting movement timing or distance. Debugging becomes part of gameplay as students revise code until their character successfully completes the course.

STEM Principles Covered

• Algorithms

• Sequencing

• Computational Thinking

• Debugging

• Logic Structures

STEM Kit Suggestions

• KUBO Coding Starter Kit
• micro:bit 
• Finch Robot 2.0 (with micro:bit)
• MakeBlock mBot2
• Firia Labs CodeBot
• Brown Dog Gadget Bit Board Rover Kit
• Ozobot Ari Educator Entry Kit
• Ozobot Evo Educator Entry Kit
• Edison Education Robot v3
• Wonder Workshop Dash
• Botley the Coding Robot
• Okdo micro:bit Build a Paper Robot Kit
• CircuitMess Sparkly
• Huey Line Tracking Robot
• Maker & Coder 4.0 AIOT Kit

Control the Game — Engineer Your Own Controller

Students design and build their own interactive game controller instead of using traditional keyboards or buttons.

How It Works

Using conductive materials or switch systems, learners create controls that trigger actions such as jumping, collecting coins, or activating sounds. Students test their controller designs to ensure reliable inputs. Teams may redesign layouts to improve usability or responsiveness.

Fun classroom builds include:

• Floor jump pads

• Coin-touch sensors

• Giant collaborative controllers

Students experience how physical hardware communicates with digital systems.

STEM Principles Covered

• Circuits & Conductivity

• Inputs & Outputs

• Human-Computer Interaction

• Electrical Engineering Basics

STEM Kit Suggestions

• Makey Makey Backpack Bundle
• Forward Education micro:bit Controller
• Play Piper Game Controller
• CircuitMess ByteBoi

Ice Flower Math — Logic & Strategy Challenge

Inspired by Mario’s Ice Flower power-up, students solve spatial puzzles using logic and reasoning.

How It Works

Learners must carefully position puzzle pieces to guide characters safely across icy terrain without becoming trapped. Students attempt multiple solutions while predicting outcomes before moving pieces. Teachers can introduce timed challenges or cooperative problem-solving rounds. The activity reinforces planning ahead and recognizing patterns rather than trial-and-error guessing.

STEM Principles Covered

• Spatial Reasoning

• Logical Thinking

• Problem Solving

• Pattern Recognition

• Strategic Planning

STEM Kit Suggestions

• Penguins on Ice Math Activity

Collect the Coins — Math & Probability Game

Coins drive progress in Mario games — and math drives success here.

How It Works

Using coin values and exchange rules, learners earn and trade coins through gameplay scenarios. Teachers can introduce probability elements such as chance cards or risk-based decisions. Students track totals, compare strategies, and analyze which approaches maximize coin collection.

Teachers can introduce:

• Coin values

• Risk vs reward

• Budget challenges

STEM Principles Covered

• Counting & Operations

• Probability

• Data Tracking

• Financial Literacy

• Strategic Decision Making

STEM Kit Suggestions

• Money Bags Coin Value Game

Power Up the Music — Engineer the Mario Theme

Students recreate the iconic Mario theme song using coding or sound engineering tools.

How It Works

Using sound engineering or coding tools, learners assign notes to buttons or coded commands. Students program sequences to recreate portions of the melody. Once successful, teams experiment by changing tempo, instruments, or rhythm to create their own remix versions. This activity demonstrates how music relies on mathematical timing and structured patterns similar to coding logic.

Extension:
Create remix versions or boss battle themes.

STEM Principles Covered

• Sound Waves & Frequency

• Pattern Recognition

• Sequencing

• Creative Engineering

• Digital Music Production

STEM Kit Suggestions

• CircuitMess Jay-D
• KiwiCo Make your Own Stereo Headphones
• CircuitMess Synthia

Make a Piranha Plant — Robotics Engineering

No Mario level is complete without obstacles!

How It Works

Students build a robotic Piranha Plant obstacle that opens and closes like enemies in Mario games. After assembling the robot, learners program movement patterns or activation timing. The plant may chomp automatically or respond to external triggers. Teams test whether Mario (robot or marble) can safely pass the obstacle and adjust timing to increase difficulty. Students explore how mechanical motion and programming combine to create interactive systems.

STEM Principles Covered

• Robotics Engineering

• Mechanical Motion

• Sensors & Automation

• Cause and Effect

STEM Kit Suggestions

• Make Chomper Bot Kit

BONUS: The Final Boss STEM Challenge

Bring all activities together into a Mario Maker Challenge Day.

Challenge Setup

Student teams must complete stations across the classroom:

Launch the Star
Race the Kart
Navigate the Marble Run
Code the Kingdom
Collect Coins
Avoid the Piranha Plant
Perform the Theme Song

Transform the classroom into a full Mushroom Kingdom challenge course. Each activity becomes a station where teams earn coins or power-ups after completion. Students rotate through physics, coding, engineering, math, robotics, and music challenges. At the final stage, teams must design a playable Mario level combining multiple STEM concepts learned throughout the day. Students test one another’s levels and vote on creativity, difficulty, and engineering success — completing the ultimate Mario STEM experience.

Final Mission

Teams design a playable Mario level combining:

• Physics obstacle

• Coding path

• Controller interaction

• Scoring system

Students rotate, test, and vote for:

• Best Engineering

• Most Creative Level

• Hardest Challenge

• Best Team Design

At its core, Mario is built on STEM principles:

Science & Physics

• Forces & Motion — Newton’s laws, push/pull interactions
• Projectile Motion — launch angles, trajectory, gravity effects
• Gravity — pull on objects, marble run dynamics
• Energy Transfer — potential to kinetic, energy loss from friction
• Friction & Resistance — surface interactions affecting motion
• Sound Waves & Frequency — music, pitch, waveform behavior
• Light & Shadow — optional visual integrations (shadow puppets)

Technology

• Coding & Computational Thinking — algorithms, sequencing, loops
• Debugging & Iteration — identify and fix code or design issues
• Input/Output Systems — controller signals, sensors
• Human-Computer Interaction — interface design, usability
• Digital Systems — microcontrollers, sound programming

Engineering

• Engineering Design Process — ask, imagine, plan, create, improve
• Prototyping & Testing — trial builds and revisions
• Structural Design & Stability — building stable worlds and mazes
• Mechanical Systems — simple machines, robot motion, chomp mechanisms
• Systems Integration — combining sub-systems into functioning designs

Mathematics

• Measurement & Data Collection — distances, angles, time intervals
• Graphing & Patterns — visualizing results, repeatable sequences
• Probability & Strategy — coin collection risk analysis
• Geometry & Spatial Reasoning — pathways, maze planning
• Counting & Operations — coin tracking, scorekeeping
• Timing & Rhythm — musical tempo, coding delays

Cross-Disciplinary/Soft Skills

• Problem Solving — analyze, revise, optimize solutions
• Critical Thinking — strategic planning, hypothesis testing
• Collaboration & Teamwork — shared builds and competitions
• Creative Engineering — novel design solutions
• Iterative Improvement — revise based on feedback and testing
• Communication & Documentation — explain designs and strategies

Don’t wait until Mario Day is

Power-Up your classroom
with these STEM activities today!