What Students Will Learn
Students will explore the principles of robotics, artificial intelligence, and programming through hands-on assembly and coding of a quadruped robotic dog. They will learn about servo motor control, balance algorithms, and sensor integration, including ultrasonic and camera modules. The kit introduces key concepts in machine learning, such as object recognition and autonomous navigation, while fostering problem-solving and computational thinking skills. Pupils will also gain experience in debugging code and optimising mechanical design for real-world applications.
Who It's For
This kit is designed for students in Years 7 to 12, with advanced extensions suitable for senior secondary levels. It aligns with Digital Technologies, Science, and Design and Technologies learning areas, and is particularly relevant for STEM electives, robotics clubs, and extension programs. The project-based approach supports differentiated learning, allowing beginners to start with basic movements and progress to complex AI-driven tasks.
Australian Curriculum Links
The PuppyPi kit directly supports the Australian Curriculum F-10 in Digital Technologies (e.g., generating and designing algorithms, implementing digital solutions, and evaluating data) and Science (e.g., forces and motion, energy transfer, and the use of sensors). It also addresses cross-curriculum priorities in critical and creative thinking and ethical understanding. Specific content descriptors include ACTDIP025, ACTDIP029, ACSSU185, and ACSIS203 for senior levels, with scaffolded activities for junior and middle years.
Coding Platform
Students program the PuppyPi using Python on a Raspberry Pi, with a block-based visual programming interface available for beginners. The kit is compatible with Raspberry Pi 4B or 5 (not included) and supports the use of the official Raspberry Pi camera module. Advanced users can access libraries for OpenCV, TensorFlow Lite, and ROS for machine learning and autonomous behaviours.
What's in the Box
The kit includes all mechanical components for the quadruped chassis, 12 high-torque servo motors, a pre-assembled main control board, ultrasonic sensor, camera module bracket, power distribution board, and all necessary screws, cables, and tools. A detailed instruction manual with step-by-step assembly guides and coding tutorials is provided. Note: Raspberry Pi board, microSD card, and power supply are required separately.
Classroom Setup & Requirements
Each kit requires a Raspberry Pi 4B or 5 (4GB RAM minimum), a microSD card (16GB+), a 5V 3A USB-C power supply, and a monitor or remote desktop access for coding. A clear workspace of approximately 60cm x 60cm per group is recommended. The kit is suitable for individual or pair work, and teachers should allocate 8–12 hours for assembly and initial programming. Additional time may be needed for advanced AI projects.
Support & Warranty
All Stemology products come with a 12-month warranty covering manufacturing defects. For technical support, curriculum integration advice, or warranty claims, please contact our team at admin@stemology.com.au. We offer responsive email support and a knowledge base with frequently asked questions.
Bulk & School Orders
Schools and educational institutions benefit from bulk pricing on orders of 5 or more kits. We accept official purchase orders from Australian schools and government departments. For a customised quote, volume discounts, or to place a bulk order, email admin@stemology.com.au with your requirements and delivery timeframe.
