What Students Will Learn
Students will develop a deep understanding of robotics, kinematics, and control systems through hands-on construction and programming of a six-axis robotic arm. They will learn to apply mathematical concepts such as coordinate geometry and trigonometry to solve real-world positioning problems. The kit fosters computational thinking, problem-solving, and engineering design skills as students program the arm to perform precise, repeatable tasks. By working with an open-source platform, learners gain practical experience in modifying and extending code, preparing them for advanced STEM studies and careers in automation and mechatronics.
Who It's For
This product is designed for secondary school students in Years 9 to 12, with strong applicability in senior secondary courses. It is ideal for subject areas including Digital Technologies, Design and Technologies, Physics, and specialist STEM electives. The kit supports differentiated learning, offering entry-level tutorials for beginners and advanced challenges for experienced coders and robotics enthusiasts.
Australian Curriculum Links
This kit directly supports the Australian Curriculum: Digital Technologies F-10 and senior secondary pathways. Key content descriptors include: "Design and implement algorithms using visual or text-based programming to control a robotic system" (ACTDIP042), "Explain how digital systems are used to control and automate processes" (ACTDIK034), and "Analyse and evaluate the design and functionality of robotic systems" (ACTDIP043). In Science, it addresses "Investigate the relationship between force, motion, and energy" (ACSSU229) and "Apply physics principles to mechanical systems" (ACSPH099). The open-source nature also aligns with the STEM F-10 focus on innovation, iterative design, and collaboration.
Coding Platform
This robotic arm is programmed using an open-source platform, compatible with Arduino IDE and Python. Step-by-step tutorials guide students from basic movement commands to complex multi-axis coordination. No prior coding experience is required for the introductory lessons, but advanced users can explore custom scripting and sensor integration. The platform is free, cross-platform, and widely supported in educational settings.
What's in the Box
Each kit contains: 1 x pre-assembled 6-axis robotic arm chassis with servo motors, 1 x open-source controller board (Arduino-compatible), 1 x USB programming cable, 1 x power adapter (12V DC), 1 x gripper attachment, 1 x set of mounting hardware, 1 x quick-start guide, and access to online tutorial library including 10+ lesson plans and project files. All components are durable and classroom-tested.
Classroom Setup & Requirements
Each kit requires a computer with a USB port and internet access for downloading the coding platform and tutorials. The arm operates on a stable, flat surface of at least 60cm x 60cm. Recommended class size is 1 kit per 2-3 students for collaborative learning. A standard classroom power outlet is sufficient. No additional tools or materials are required. Teachers should allocate 45-60 minutes per tutorial session, with extension activities available for deeper exploration.
Support & Warranty
Every kit comes with a 12-month warranty covering manufacturing defects and component failure. Stemology provides dedicated email support for teachers and technical queries at admin@stemology.com.au. Our team responds within 24 business hours. Additional tutorial updates and curriculum mapping documents are available on our website.
Bulk & School Orders
Stemology offers tiered bulk pricing for orders of 5 or more kits, with further discounts for class sets of 20+. We accept official school purchase orders and can provide invoice payment terms for verified educational institutions. To request a quote or place a bulk order, please contact us at admin@stemology.com.au with your school name, order quantity, and delivery postcode.
