From Construction to Code—Building the Skills Behind Real-World Robotics

The TETRIX PRIME Programmable Robotics Set gives students a structured path through the engineering design process. They start by constructing physical robots from aluminum channels, gears, and brackets, then bring those robots to life with the PULSE controller and autonomous programming. This progression from mechanical design to computational thinking mirrors the workflow professional engineers use every day.

The dual coding pathway meets students where they are. Beginners build confidence with Ardublockly’s visual blocks, while advanced learners write Arduino C/C++ syntax. Both pathways target the same hardware, so every student in the room works toward the same challenge goals regardless of prior coding experience. Over 9–14 hours of guided curriculum, students develop transferable skills in problem-solving, iteration, and logical reasoning.

Nine autonomous challenges—including Catapult, Robotic Arm, Stair Climber, and Canyon Bridger—ground abstract concepts in tangible outcomes. Students see immediate cause-and-effect relationships between their code and robot behavior, strengthening both technical competency and creative confidence.

Getting Started (2–3 hours):

• Unboxing, parts identification, and battery charging
• Snappee Bot introductory build• PULSE controller wiring and USB connection
• First Ardublockly program: motor control basics

Sensor Integration and Coding (3–4 hours):

• Grove Line Finder sensor—line-following program
• Grove Ultrasonic sensor—obstacle detection and avoidance
• Combining sensor inputs for autonomous decision-making
• Transition from Ardublockly to Arduino IDE (optional pathway)

Autonomous Challenges (4–7 hours):

• Catapult—design a launching mechanism and calibrate throw distance
• Robotic Arm—build and program a gripper to pick and place objects
• Robots in Town—navigate a course using sensor data• Smallest Vehicle—optimize for compact design
• Stair Climber—engineer a robot that ascends steps
• Tree Harvester—collect objects from elevated positions
• Canyon Bridger—span a gap with a mechanical extension
• Morse Code—program signal communication
• Relay Race—coordinate timed autonomous runs

Teacher Resources:

• Quick-Start Guide—step-by-step setup from unboxing to first autonomous run
• Detailed Programming Guide—covers both Ardublockly and Arduino IDE workflows
• Ardublockly Reference Guide—block-by-block function descriptions
• Ardublockly FAQ—troubleshooting and common questions
• Snappee Bot Builder’s Guide—introductory build instructions
• Arduino Web Editor Instructions—cloud-based coding setup
• Parts Index—visual parts identification guide
• 3-D CAD Files—downloadable models for advanced design work
• Student Engineering Logbook—structured documentation for the design process
• 9 Autonomous Challenge PDFs—printable challenge briefs with criteria and rubrics

Software Access:

• TETRIX Ardublockly Web App—free, browser-based (Chrome and Edge)
• Arduino IDE—free download for Mac, Windows, and Chromebooks
• PULSE Arduino Library—install in Arduino IDE for PULSE-specific functions

Pitsco Education Support:

• Dedicated Education Advisors available by phone and email
• Technical support for controller, sensor, and software troubleshooting
• Online resources at pitsco.com