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Summer Workshops 2025 - Details | Make It Fun Racing

Build & Race 3D Printed RC Car

5 Day Workshop. Build a 1/24 scale electric RC car from 3D printed parts & electronics, culminating in a Friday race event. Materials included.

Age Group: 12+

Time: 9:30 AM - 12:00 PM (Monday - Friday)

Focus: RC car construction, electronics, basic mechanics, racing.

Dates Offered (2025):

  • July 7 - July 11
  • July 28 - August 1
  • August 18 - August 22
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Build & Compete 3D Printed Rock Crawler

5 Day Workshop. Assemble a 1/24 scale electric rock crawler and tackle a challenging course on Friday. Materials included.

Age Group: 12+

Time: 9:30 AM - 12:00 PM (Monday - Friday)

Focus: RC rock crawler construction, problem-solving, navigating obstacles.

Dates Offered (2025):

  • July 14 - July 18
  • August 4 - August 8
  • August 25 - August 29
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Build & Compete Ant Weight Battle Robot

5 Day Workshop. Build a flipper or spinner battle robot from a 3D printed kit. Friday competition! Materials included.

Age Group: 12+ (Intermediate model building skills required)

Time: 9:30 AM - 12:00 PM (Monday - Friday)

Focus: Robotics, model building, mechanics, competitive strategy.

Dates Offered (2025):

  • July 21 - July 25
  • August 11 - August 15
Register for this Workshop

Design & Build Lightbox/Desk Lamp

2 Day Workshop. Design your custom lightbox or table lamp. Create your design on day 1 and send to 3D printers. Return on day 2 to assemble and finish. Materials provided.

Age Group: 8+ (Parental attendance recommended for ages 8-9)

Time: 2:00 PM - 4:30 PM (Monday - Tuesday)

Focus: 3D design basics, 3D printing process, assembly, creative expression.

Dates Offered (2025):

  • July 7 - July 8
  • July 21 - July 22
  • August 4 - August 5
  • August 18 - August 19
Register for this Workshop

Intro to RC Car Maintenance

Single Day Workshop. Basic RC car care, cleaning, and simple repairs.

Age Group: 10+ (Parental attendance recommended for ages 10-11 if bringing own car)

Time: 2:00 PM - 4:00 PM (Single Day)

Focus: RC car upkeep, basic troubleshooting, repairs, upgrades. Recommended to bring your own RC car.

Dates Offered (2025):

  • July 11 (Friday)
  • July 18 (Friday)
  • July 29 (Tuesday)
  • August 7 (Thursday)
  • August 14 (Thursday)
  • August 25 (Monday)
Register for this Workshop
Summer Workshop Curricula 2025 | Make It Fun Racing

Summer Workshop Agendas & Curricula 2025

Build & Race 3D Printed RC Car

5-Day Workshop | Ages 12+ | Morning Session (9:30 AM - 12:00 PM)

Participants will learn the fundamentals of 3D printed RC car assembly, basic electronics, and driving skills, culminating in a friendly race.

Overall Goal

To provide a comprehensive, hands-on experience in building a 1/24 scale electric RC car from 3D printed and standard components, understanding its mechanics and electronics, and enjoying the thrill of racing.

Skills Used/Developed

  • Mechanical assembly & precision
  • Understanding of basic RC electronics (motors, ESC, servo, receiver)
  • Problem-solving and troubleshooting
  • Fine motor skills & dexterity
  • Basic RC car tuning concepts
  • Driving skills & racing strategy
  • Following instructions & teamwork (implicitly)

Tools Used

  • Screwdriver set (various sizes, Phillips & hex)
  • Pliers (needle-nose recommended)
  • Wire strippers (if applicable for specific kits)
  • 3D printed car parts kit
  • RC electronics kit (motor, ESC, servo, battery, charger)
  • RC Transmitter & Receiver
  • Hobby knife (instructor supervised use only)
  • Safety glasses

Daily Agenda & Time Breakdown (2.5 hours/day)

Day 1: Introduction & Chassis Assembly

Goal: Understand the project scope, safety protocols, and begin assembling the main chassis components.

  • 9:30 - 9:45 (15 min): Welcome, introductions, workshop overview, safety briefing (tools, batteries).
  • 9:45 - 10:30 (45 min): Unboxing kits, identifying all parts (3D printed & electronics), introduction to 3D printed component characteristics.
  • 10:30 - 10:45 (15 min): Break.
  • 10:45 - 11:45 (60 min): Guided assembly of the main chassis components (e.g., frame, bulkheads, initial suspension arm mounting - Part 1). Focus on correct screw types and tightening.
  • 11:45 - 12:00 (15 min): Q&A session, cleanup, and brief preview of Day 2 activities.
Day 2: Suspension & Drivetrain Installation

Goal: Complete the assembly of the suspension system and install the drivetrain components (motor, gearbox, driveshafts).

  • 9:30 - 9:40 (10 min): Quick review of Day 1 progress, address any overnight questions.
  • 9:40 - 10:30 (50 min): Assembly of shocks, attaching remaining suspension arms, and connecting linkages (Part 2). Understanding suspension movement.
  • 10:30 - 10:45 (15 min): Break.
  • 10:45 - 11:45 (60 min): Installing the motor into the mount/gearbox, assembling and installing the gearbox (if separate), connecting driveshafts to wheels/axles.
  • 11:45 - 12:00 (15 min): Cleanup, and brief preview of Day 3 (electronics).
Day 3: Electronics Installation & Setup

Goal: Install and correctly connect all electronic components (ESC, servo, receiver, battery). Perform basic transmitter setup and calibration.

  • 9:30 - 9:40 (10 min): Review of drivetrain assembly, introduction to RC electronics components and their roles.
  • 9:40 - 10:30 (50 min): Mounting the ESC (Electronic Speed Controller), steering servo, and radio receiver. Discussing optimal placement and secure mounting.
  • 10:30 - 10:45 (15 min): Break.
  • 10:45 - 11:45 (60 min): Connecting components to the receiver, battery connection, binding the transmitter to the receiver, initial ESC calibration, and setting steering endpoints.
  • 11:45 - 12:00 (15 min): Cleanup, and brief preview of Day 4 (final assembly & testing).
Day 4: Wheels, Body & Initial Testing/Tuning

Goal: Complete the final assembly by attaching wheels and the car body. Conduct initial test drives and perform basic tuning adjustments.

  • 9:30 - 9:40 (10 min): Review electronics setup, Q&A.
  • 9:40 - 10:30 (50 min): Attaching wheels and tires. Mounting the 3D printed car body (discussing different mounting methods).
  • 10:30 - 10:45 (15 min): Break.
  • 10:45 - 11:45 (60 min): First controlled test drives in a designated area. Basic adjustments: steering trim, throttle trim, checking for any binding or issues. Introduction to simple tuning concepts (e.g., shock positions if adjustable).
  • 11:45 - 12:00 (15 min): Cleanup, battery charging reminder, and preview of Race Day.
Day 5: Race Day!

Goal: Participate in a friendly race event, applying the skills learned throughout the week in a fun and competitive environment.

  • 9:30 - 9:45 (15 min): Final car checks, battery installation, race rules briefing, and track walk (if applicable).
  • 9:45 - 10:30 (45 min): Practice laps on the race track. Opportunity for last-minute minor tuning or adjustments.
  • 10:30 - 10:45 (15 min): Break.
  • 10:45 - 11:45 (60 min): Race heats/event (e.g., qualifying rounds, main races). Emphasis on sportsmanship and fun.
  • 11:45 - 12:00 (15 min): Fun awards/recognition, workshop wrap-up, and participant feedback.
Register for RC Race Car Workshop

Build & Compete 3D Printed Rock Crawler

5-Day Workshop | Ages 12+ | Morning Session (9:30 AM - 12:00 PM)

Participants will construct a 3D printed RC rock crawler, understanding its unique mechanics for off-road performance, and test it on a crawling course.

Overall Goal

To guide participants through the assembly of a 1/24 scale 3D printed RC rock crawler, focusing on the principles of suspension articulation, weight distribution, and high-torque drivetrains necessary for navigating challenging terrain.

Skills Used/Developed

  • Detailed mechanical assembly (multi-link suspension, portal axles if applicable)
  • Understanding of crawler-specific electronics (high-torque motors, specialized ESCs)
  • Problem-solving for complex assemblies
  • Fine motor skills
  • Understanding of vehicle dynamics: center of gravity, articulation, approach/departure angles
  • Strategic thinking for navigating obstacle courses

Tools Used

  • Screwdriver set (various sizes, Phillips & hex)
  • Pliers (needle-nose)
  • 3D printed crawler parts kit (chassis, links, axle housings, etc.)
  • RC electronics (high-torque motor, crawler ESC, steering servo, battery, charger)
  • RC Transmitter & Receiver
  • Weights for tuning (optional, provided)
  • Safety glasses

Daily Agenda & Time Breakdown (2.5 hours/day)

Day 1: Introduction to Crawlers & Axle/Chassis Assembly

Goal: Understand the unique characteristics of RC rock crawlers, safety, and begin assembling the axles and main chassis frame.

  • 9:30 - 9:45 (15 min): Welcome, introductions, workshop overview, specific safety points for crawlers (pinching points, motor torque).
  • 9:45 - 10:30 (45 min): Unboxing kits, identifying crawler-specific parts (e.g., links, high-clearance components). Focus on axle assembly (gears, bearings, housings).
  • 10:30 - 10:45 (15 min): Break.
  • 10:45 - 11:45 (60 min): Guided assembly of the main chassis rails/frame. Initial attachment of axle assemblies to the chassis.
  • 11:45 - 12:00 (15 min): Q&A, cleanup, preview of Day 2 (suspension).
Day 2: Suspension Links & Shock Installation

Goal: Assemble and install the multi-link suspension system and shocks, understanding how they contribute to articulation.

  • 9:30 - 9:40 (10 min): Review Day 1, discuss the importance of suspension geometry in crawlers.
  • 9:40 - 10:30 (50 min): Assembling suspension links (upper and lower), ensuring correct lengths and pivot ball installation.
  • 10:30 - 10:45 (15 min): Break.
  • 10:45 - 11:45 (60 min): Mounting shocks to the chassis and axles. Connecting all suspension links. Testing for free movement and maximum articulation.
  • 11:45 - 12:00 (15 min): Cleanup, preview of Day 3 (drivetrain & electronics).
Day 3: Motor, Transmission & Electronics Installation

Goal: Install the motor, transmission, and driveshafts. Mount and connect all electronic components.

  • 9:30 - 9:40 (10 min): Review suspension setup. Introduction to crawler drivetrains (gearing for torque).
  • 9:40 - 10:30 (50 min): Mounting the motor and transmission assembly. Installing driveshafts and ensuring smooth operation.
  • 10:30 - 10:45 (15 min): Break.
  • 10:45 - 11:45 (60 min): Installing the ESC, steering servo, and radio receiver. Wiring components, binding transmitter, and initial ESC calibration (crawler-specific settings if any).
  • 11:45 - 12:00 (15 min): Cleanup, preview of Day 4 (final setup).
Day 4: Wheels, Body & Initial Setup/Tuning

Goal: Attach wheels and body. Discuss and implement basic crawler tuning (e.g., weight distribution, shock oil/springs if applicable).

  • 9:30 - 9:40 (10 min): Review electronics. Discussion on factors affecting crawler performance (tire choice, weight bias).
  • 9:40 - 10:30 (50 min): Mounting wheels and tires (ensuring correct rotation if directional). Attaching the body.
  • 10:30 - 10:45 (15 min): Break.
  • 10:45 - 11:45 (60 min): Initial test on a simple obstacle. Discussing and experimenting with weight placement for balance and grip. Checking steering angles and servo power.
  • 11:45 - 12:00 (15 min): Cleanup, battery charging, preview of Crawler Course Day.
Day 5: Crawler Course Challenge!

Goal: Test the completed rock crawlers on a specially designed obstacle course, applying learned driving techniques and understanding vehicle limitations.

  • 9:30 - 9:45 (15 min): Course overview, safety on the course, tips for effective crawling (slow and steady, line choice).
  • 9:45 - 10:30 (45 min): Practice runs on different sections of the obstacle course. Opportunity for minor adjustments.
  • 10:30 - 10:45 (15 min): Break.
  • 10:45 - 11:45 (60 min): Timed runs or point-based challenge on the full crawling course. Navigating various obstacles.
  • 11:45 - 12:00 (15 min): Workshop wrap-up, sharing experiences and challenges, feedback.
Register for Rock Crawler Workshop

Ant Weight Battle Robot Build & Compete

5-Day Workshop | Ages 12+ (Intermediate Model Building Skills) | Morning Session (9:30 AM - 12:00 PM)

Participants will assemble an ant-weight (1lb) combat robot (flipper or spinner) from a kit, learn about its systems, and compete in a friendly tournament.

Overall Goal

To introduce participants to the exciting world of combat robotics by building their own ant-weight robot, understanding the design and strategic considerations for different weapon types, and experiencing the thrill of competition in a safe environment.

Skills Used/Developed

  • Robust mechanical assembly (handling durable parts, secure fastening)
  • Understanding of combat robot electronics (drive motors, weapon motors, robust ESCs, LiPo batteries)
  • Basic wiring; soldering (optional, depending on kit complexity & supervision)
  • Strategic thinking for robot combat and design choices
  • Adherence to strict safety protocols for combat robotics
  • Problem-solving under pressure (repairs between matches)
  • Intermediate model building skills are beneficial

Tools Used

  • Screwdriver set (various sizes, Phillips & hex, often metric for robot kits)
  • Pliers (needle-nose, wire cutters/strippers)
  • Hex driver set / Allen keys
  • Soldering iron & solder (instructor supervised, if kit requires)
  • Robot kit parts (chassis, motors, weapon components, armor, wheels)
  • RC Transmitter & Receiver (often 2.4GHz spread spectrum)
  • LiPo battery & compatible charger (with safety bag)
  • Safety glasses (mandatory)
  • Work gloves (recommended for handling sharp parts)

Daily Agenda & Time Breakdown (2.5 hours/day)

Day 1: Introduction to Battle Robots & Kit Overview

Goal: Understand combat robot classes (focus on Ant weight), critical safety rules, and begin chassis and drive system assembly.

  • 9:30 - 9:50 (20 min): Welcome, introductions, EXTREME safety briefing (LiPo batteries, spinning weapons, arena safety), overview of ant-weight robot types (flippers, spinners, lifters, etc.).
  • 9:50 - 10:30 (40 min): Kit unboxing (participants choose/are assigned flipper or spinner type if options exist). Identifying all components. Begin assembly of the main chassis structure.
  • 10:30 - 10:45 (15 min): Break.
  • 10:45 - 11:45 (60 min): Continued chassis assembly. Mounting drive motors and wheels/hubs. Ensuring drivetrain spins freely.
  • 11:45 - 12:00 (15 min): Q&A, cleanup, preview of Day 2 (weapon systems).
Day 2: Weapon System Assembly

Goal: Assemble and securely mount the chosen weapon system (flipper mechanism or spinner assembly) to the chassis.

  • 9:30 - 9:40 (10 min): Review Day 1. Discuss specific mechanics and safety considerations of the assigned weapon type.
  • 9:40 - 10:30 (50 min): Guided assembly of the flipper arm, linkage, and servo/actuator OR assembly of the spinner motor, weapon bar/drum, and associated bearings/pulleys.
  • 10:30 - 10:45 (15 min): Break.
  • 10:45 - 11:45 (60 min): Mounting the assembled weapon system to the robot chassis. Ensuring it is robustly attached and aligned correctly. Checking for range of motion (flipper) or clearance (spinner).
  • 11:45 - 12:00 (15 min): Cleanup, preview of Day 3 (electronics).
Day 3: Electronics & Wiring

Goal: Install drive ESCs, weapon ESC/controller, and radio receiver. Complete all wiring for the robot.

  • 9:30 - 9:40 (10 min): Review weapon assembly. Overview of electronics layout and power distribution.
  • 9:40 - 10:30 (50 min): Mounting all electronic components (drive ESCs, weapon ESC, receiver, power switch). Introduction to basic soldering if the kit requires direct wire connections (otherwise, using pre-made connectors).
  • 10:30 - 10:45 (15 min): Break.
  • 10:45 - 11:45 (60 min): Completing all wiring connections between motors, ESCs, receiver, and battery. Binding transmitter. Initial power-on tests (DRIVE MOTORS ONLY, WEAPON SYSTEM MUST BE DISARMED/DISABLED).
  • 11:45 - 12:00 (15 min): Cleanup, preview of Day 4 (armor & testing).
Day 4: Armor, Final Checks & Weapon Testing

Goal: Attach armor panels, perform comprehensive system checks, and conduct safe, controlled weapon tests in a secure environment.

  • 9:30 - 9:40 (10 min): Review electronics wiring. Discussion on armor materials and attachment strategies.
  • 9:40 - 10:30 (50 min): Fitting and securely attaching armor panels to the robot. Final checks on all screws, connections, and wire routing (to prevent pinching/damage).
  • 10:30 - 10:45 (15 min): Break.
  • 10:45 - 11:45 (60 min): Safe, controlled weapon system testing in a designated, fully enclosed test box or arena (instructor-led). Driving practice without weapon activation, then with weapon activation (under strict supervision).
  • 11:45 - 12:00 (15 min): Cleanup, battery charging, final preparations for Competition Day.
Day 5: Competition Day!

Goal: Compete in a friendly ant-weight robot tournament, applying strategic thinking and driving skills.

  • 9:30 - 9:45 (15 min): Tournament rules and format explanation, final safety checks on all robots, official weigh-in.
  • 9:45 - 10:30 (45 min): Opportunity for practice matches or sparring in the arena. Last-minute troubleshooting or repairs.
  • 10:30 - 10:45 (15 min): Break.
  • 10:45 - 11:45 (60 min): Tournament matches (e.g., round-robin or bracket style). Emphasis on safety, sportsmanship, and learning from each match.
  • 11:45 - 12:00 (15 min): Fun awards (e.g., "Most Destructive," "Best Driver," "Most Creative Design"), workshop wrap-up, and feedback.
Register for Battle Robot Workshop

Design & Build Lightbox/Desk Lamp

2-Day Workshop | Ages 8+ (Parental attendance recommended for 8-9) | Afternoon Session (2:00 PM - 4:30 PM)

Participants will learn basic 3D design principles and software usage to create a personalized lightbox or desk lamp, then assemble it using 3D printed parts and simple electronics.

Overall Goal

To introduce participants to the complete 3D design and printing workflow, from digital concept to a functional, personalized physical object, incorporating basic electronics for illumination.

Skills Used/Developed

  • Basic 3D modeling skills (using software like Tinkercad)
  • Understanding the 3D printing process (design considerations, slicing basics)
  • Simple circuit assembly (LEDs, switch, power source)
  • Creative design and personalization
  • Problem-solving during design and assembly
  • Spatial reasoning

Tools Used

  • Computers with internet access and 3D modeling software (e.g., Tinkercad)
  • 3D printers (operated by staff to print parts between sessions)
  • PLA filament
  • LED strips (low voltage)
  • Wires, switches, battery holders/USB cables for power
  • Soldering iron & solder (optional, for more robust connections, instructor supervised)
  • Hot glue gun
  • Craft knives or deburring tools (instructor supervised use only)
  • Safety glasses

Daily Agenda & Time Breakdown (2.5 hours/day)

Day 1: Design & 3D Print Preparation

Goal: Conceptualize and digitally design the lightbox or desk lamp structure using 3D modeling software, and prepare the files for 3D printing.

  • 2:00 - 2:15 (15 min): Welcome, introductions, showcase of example lightboxes/lamps, overview of the 3D design and printing process.
  • 2:15 - 3:15 (60 min): Introduction to the chosen 3D modeling software (e.g., Tinkercad). Guided tutorial: creating basic shapes, manipulating objects, adding text or patterns. Begin designing the main structure of the lightbox/lamp.
  • 3:15 - 3:30 (15 min): Break.
  • 3:30 - 4:15 (45 min): Finalizing individual designs. Ensuring parts are designed for printability (e.g., flat bases, appropriate wall thickness, considerations for overhangs). Exporting designs as STL files.
  • 4:15 - 4:30 (15 min): Submitting STL files for printing by workshop staff. Q&A session, and preview of Day 2 assembly. (Parts will be 3D printed by staff overnight/between sessions).
Day 2: Assembly & Finishing

Goal: Assemble the 3D printed parts, install the LED lighting circuit, and complete the personalized lightbox or desk lamp.

  • 2:00 - 2:10 (10 min): Review of designs from Day 1. Participants receive their 3D printed parts. Quick discussion on post-processing (removing supports if any).
  • 2:10 - 3:00 (50 min): Introduction to simple LED circuits: understanding LED strips, connecting to a switch and power source (battery pack or USB). Assembling the electronic components. Soldering basics may be introduced for older/more capable participants under strict supervision if time and kit allow.
  • 3:00 - 3:15 (15 min): Break.
  • 3:15 - 4:15 (60 min): Assembling the 3D printed housing of the lightbox/lamp. Integrating the LED circuit. Attaching any diffusing panels (for lightboxes) or shades. Final touches and ensuring everything is secure.
  • 4:15 - 4:30 (15 min): Testing the completed projects. Troubleshooting any issues. "Show and Tell" session for participants to display their creations.
Register for Lightbox Workshop

Intro to RC Car Maintenance

1-Day Workshop | Ages 10+ (Parental attendance recommended for 10-11 if bringing own car) | Afternoon Session (2:00 PM - 4:00 PM)

Participants will learn basic maintenance, cleaning, and simple troubleshooting/repair techniques for their own RC cars (or a demo car if they don't have one).

Overall Goal

To empower RC car owners with the fundamental knowledge and skills to properly care for their vehicles, perform routine maintenance, and identify/fix common minor issues, extending the life and performance of their cars.

Skills Used/Developed

  • Identification of key RC car components (motor, ESC, servo, suspension, drivetrain)
  • Proper cleaning methods for RC cars
  • Ability to check for and tighten loose screws/parts
  • Understanding of basic battery care and safety
  • Troubleshooting common RC car problems (e.g., no power, steering issues)
  • Basic tool usage specific to RC cars
  • Confidence in performing simple repairs

Tools Used

  • Participant's own RC car (any scale, encouraged but not mandatory; demo cars available)
  • Basic RC tool kit (Phillips screwdrivers, hex drivers, nut drivers, pliers - some provided, participants can bring own)
  • Cleaning supplies (brushes, microfiber cloths, compressed air if available)
  • Hobby-safe lubricants (e.g., for bearings, gears - optional, for demonstration)
  • Work mat or tray
  • Safety glasses (recommended)

Agenda & Time Breakdown (2 hours total)

Single Session Workshop
  • 2:00 - 2:10 (10 min): Welcome, introductions, brief overview of workshop goals. Safety when working on RC cars (disconnecting batteries, tool safety).
  • 2:10 - 2:40 (30 min): RC Car Anatomy Tour: Guided identification of key components on a demo car and participants' cars. Discussion of what each part does (motor, ESC, servo, receiver, battery, suspension parts, drivetrain parts).
  • 2:40 - 3:10 (30 min): Preventative Maintenance & Cleaning: Best practices for cleaning after a run (dirt, dust, water exposure). How to check for loose screws, worn tires, and damaged parts. Basic battery care and charging safety.
  • 3:10 - 3:20 (10 min): Break.
  • 3:20 - 3:50 (30 min): Common Issues & Simple Fixes: Interactive session on troubleshooting common problems:
    • Car won't turn on (checking connections, battery).
    • Steering problems (servo check, linkage).
    • Motor not running (connections, ESC lights).
    • Unusual noises (identifying source - gears, bearings).
    Guided hands-on practice (e.g., tightening a loose wheel nut, checking motor connections) on participants' cars or demo units.
  • 3:50 - 4:00 (10 min): Q&A session. Resources for further learning (online forums, local hobby shops). Workshop wrap-up and cleanup.
Register for RC Maintenance Workshop

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ENCI Mine, Maastricht, Netherlands