What Students Will Learn
Students will gain hands-on experience in programming, electronics, and robotics by building and controlling a fully functional smart car. Key learning outcomes include understanding microcontroller architecture (ESP32), sensor integration (ultrasonic, infrared, and line-tracking sensors), motor control, wireless communication via Wi-Fi and Bluetooth, and real-world problem-solving through autonomous navigation and obstacle avoidance. The kit introduces foundational coding concepts such as loops, conditionals, functions, and debugging within a tangible, interactive context.
Who It's For
This kit is designed for secondary school students in Years 7 to 10, with particular relevance to Digital Technologies, Design and Technologies, and STEM elective subjects. It is suitable for classroom use, after-school robotics clubs, and extension activities for students with emerging programming skills.
Australian Curriculum Links
This product directly supports the Australian Curriculum: Digital Technologies F-10, specifically content descriptors such as: Define and decompose real-world problems (ACTDIP027), Design algorithms represented diagrammatically and in structured English (ACTDIP029), and Implement and modify programs with user interfaces (ACTDIP030). It also links to Science (Physical Sciences) and STEM capabilities by integrating electrical circuits, motion, and sensor technology. The kit encourages systems thinking, data representation, and iterative design processes.
Coding Platform
Programming is delivered through the Arduino IDE (C++), a widely used platform in education and industry. The kit includes step-by-step guides and sample code to support beginners, while offering advanced challenges for more experienced students. No prior coding experience is required, but basic computer literacy is beneficial.
What's in the Box
- ESP32 development board (Wi-Fi + Bluetooth enabled)
- Smart car chassis with 4WD motors and wheels
- Ultrasonic sensor module (HC-SR04)
- Infrared obstacle avoidance sensor
- Line-tracking sensor module
- L298N motor driver board
- Servo motor for sensor panning
- 18650 battery holder and power module
- USB programming cable
- Acrylic mounting plates and hardware kit
- Screwdriver and jumper wires
- Detailed instruction manual with wiring diagrams and code examples
Classroom Setup & Requirements
Each kit requires a computer (Windows, macOS, or Linux) with the Arduino IDE installed (free download). A clear, flat floor space of approximately 2m x 2m is recommended for line-following and obstacle courses. Teachers will need to prepare or print line-tracking paths (black tape on white surface). Batteries (2 x 18650) are not included and should be sourced separately. No soldering is required; all connections are via jumper wires and screw terminals. Recommended class size: up to 30 students working in pairs (15 kits).
Support & Warranty
All Stemology products come with a 12-month warranty against manufacturing defects. For technical support, curriculum integration advice, or warranty claims, contact us at admin@stemology.com.au. Our team is committed to helping educators maximise the learning potential of each kit.
Bulk & School Orders
Bulk pricing is available for orders of 10 or more kits. We accept official school purchase orders and can provide custom invoicing for your institution. For a quote or to place a bulk order, email admin@stemology.com.au with your school name, quantity required, and preferred delivery timeline. All orders are dispatched within 5 business days.
