Innovation in education doesn’t happen overnight. It requires vision, infrastructure, and the right tools to bring everything together. In a recent webinar hosted by ATLIS, educators from Columbus Academy shared how they transformed their approach to STEM, makerspaces, and 3D printing across their entire curriculum. Their journey offers a practical blueprint for schools looking to scale innovation in a meaningful way.
From Traditional Education to a STEM-Driven Ecosystem
Founded in 1911, Columbus Academy has long been recognized for excellence in humanities, arts, and athletics. Over the past two decades, however, the school has made a deliberate and strategic shift toward STEM and technology integration. Today, it serves more than 1,100 students from early childhood through grade 12, supported by a robust digital infrastructure.
Students benefit from a one-to-one iPad program, while educators rely on platforms like Google Classroom and Google Workspace to manage learning and collaboration. Behind the scenes, device management is handled through Jamf, ensuring security and scalability. Yet, as the school quickly discovered, simply having access to technology does not automatically translate into innovation.
Building Makerspaces That Actually Work
Rather than treating makerspaces as standalone initiatives, Columbus Academy focused on building a connected ecosystem. What began as a single room without a defined curriculum has evolved into a fully equipped innovation hub filled with 3D printers, laser cutters, CNC machines, robotics systems, and woodworking tools.
This growth was not limited to one age group. A second makerspace was introduced for younger students, creating early exposure to coding, robotics, and design thinking. As a result, students now experience a continuous STEM journey from primary school through to high school. This continuity has been critical in developing both confidence and technical ability over time.
The Three-Legged Stool of Innovation
A key takeaway from the Academy’s experience is that successful technology integration rests on three core pillars: faculty training, curriculum alignment, and student skill development. Without all three working together, progress tends to stall.
Faculty training was the first major challenge. Initially, only a small group of teachers felt comfortable using advanced tools like 3D printers or laser cutters. To address this, the school introduced hands-on workshops, informal training sessions, and summer institutes designed to make learning approachable. More recently, they launched a self-paced badging system that allows teachers to develop skills on their own schedule. This flexibility significantly increased participation and engagement.
Curriculum integration followed. Instead of relying on occasional projects, the school embedded makerspace activities directly into the learning experience. Dedicated classes were introduced across middle school grades, while younger students began building foundational skills earlier. The addition of engineering courses at the high school level now completes a full learning pathway, ensuring that students continuously build on their knowledge.
Equally important has been the focus on student skill development. Learners are no longer just interacting with tools at a surface level. They are actively engaging in the full design and production process, from creating models in Tinkercad to understanding how designs translate into physical objects. This shift has transformed 3D printing into a deeper educational experience rather than a simple output activity.
The Biggest Bottleneck: Managing 3D Printing at Scale
Despite strong progress, one major challenge persisted: managing 3D printing efficiently at scale. As usage increased, operational inefficiencies became more apparent. Students relied on manual workflows involving SD cards and USB drives, which led to frequent errors, misplaced files, and failed prints. Teachers often struggled to track ownership of prints, while long queues and slow processing times created frustration.
These bottlenecks limited the potential of the makerspace. Even with the right tools and curriculum in place, the operational side of 3D printing was holding the program back.
How 3DPrinterOS Transformed Their Workflow
The introduction of 3DPrinterOS marked a turning point. By moving to a cloud-based system, Columbus Academy was able to streamline its entire 3D printing workflow and eliminate many of the inefficiencies that had previously slowed them down.
Students can now submit print jobs directly from their devices without needing physical storage tools. This not only saves time but also reduces errors significantly. Teachers maintain control through centralized queue management, allowing them to oversee submissions and prioritize jobs when needed.
The platform also provides real-time feedback on key factors such as print time, material usage, and structural requirements. This has encouraged students to think more critically about their designs before sending them to print. In addition, all files are stored in a centralized system, making it easy to track ownership, revisit past work, and maintain organization across classes.
From “Magic Box” to Meaningful Learning
Before implementing a structured workflow, 3D printing often felt like a black box. Students would download designs and send them to print without fully understanding the process. Now, they are actively involved in every stage, from design decisions to production outcomes.
This shift has had a profound impact on learning. Students are developing problem-solving skills, thinking more critically about constraints, and engaging in iterative design processes. What was once a novelty has become an integral part of how they learn and create.
What Other Schools Can Learn
Columbus Academy’s experience highlights an important reality. Technology alone does not drive innovation. True transformation happens when tools are supported by strong training, thoughtful curriculum design, and efficient systems.
Empowering teachers is essential, as they are the ones who bring these tools into the classroom. At the same time, operational challenges must be addressed early. Without scalable systems in place, even the most well-designed programs can struggle to grow. Cloud-based solutions, in particular, play a critical role in simplifying complexity and enabling expansion.
Final Thoughts
By aligning infrastructure, training, and software, Columbus Academy has built a scalable and sustainable model for STEM education. Their journey demonstrates that innovation is not just about adopting new tools, but about making those tools accessible, manageable, and meaningful for both teachers and students.
For schools looking to expand their makerspaces or improve how they manage multiple 3D printers, the message is clear. With the right approach, complexity can be transformed into creativity, unlocking the full potential of STEM learning.
