PROGRAMS



Exciting STEM Projects

Advanced technology and concepts made fun and accessible

At Elevation, we believe that STEM projects should provide excitement and fun, as well as technical depth and industry relevancy. To reach this goal, we have selected three of the most compelling subject areas for our programs. Each of these subjects are not only representative of three of the most pervasive commercial market segments, the technology and concepts presented also cross over to many other unrelated industry segments. For example, the analog to digital signal technology in the simulation programs directly correlates with the sensor technology used in MIDI digital instruments such as electronic drums, digital pianos, and wearable instruments. Perhaps the most important aspect of these programs is the desire for participation that they instill into young learners.


Any of these programs can be modified to increase or decrease difficulty to fit different skill levels and learning objectives.

Flight Simulation

Building a working flight simulator is one of the most exciting and educational STEM projects students can undertake. It combines science, technology, engineering, and mathematics into a single, hands-on experience that brings abstract classroom concepts to life. Elevation's program is structured to occupy up to 30 students in the actual construction of a fully working simulator. Functional modules, such as radio communications, can be added to the base kit to build a full training level simulator. Full instructor support is provided allowing participation with limited aviation and fabrication experience. In short, constructing a working flight simulator is more than a school project—it’s an immersive STEM learning experience that builds technical expertise, sparks curiosity, and inspires the next generation of innovators and aviators.


  • Real-World Engineering Experience

Designing and constructing a flight simulator requires students to apply mechanical, electrical, and software engineering principles in a tangible way—mirroring how professional engineers solve complex problems.


  • Integration of Multiple STEM Fields

The project blends aerodynamics, computer programming, electronics, and physics. This interdisciplinary nature helps students see how STEM fields work together in real-world applications.


  • Development of Problem-Solving and Critical Thinking Skills

From wiring controls to coding flight dynamics, students must troubleshoot, adapt, and think creatively to make their simulator function properly.


  • Hands-On Learning and Engagement

Unlike textbook learning, a simulator project involves active experimentation, encouraging deeper understanding through doing rather than memorizing.


  • Exposure to Aviation and Technology Careers

Students gain insight into aviation, aerospace engineering, and simulation technology—industries that continue to drive innovation and demand skilled professionals.


  • Collaboration and Project Management Skills

Building a simulator often involves teamwork, planning, budgeting, and time management—essential skills for success in any STEM career.


  • Encouragement of Innovation

Students can customize their simulator’s design, controls, and software, inspiring creativity and innovation as they explore new ways to improve realism or usability.


  • Immediate Feedback and Measurable Success

Every flight test provides data and instant feedback, allowing students to learn iteratively through trial and error, just like real engineers and pilots.




Formula Racing Simulation

Building a working Formula One (F1) racing simulator is an engaging STEM project that brings engineering, technology, and mathematics to life in a high-speed, hands-on way. This project offers students a chance to combine creativity, problem-solving, and real-world applications while learning about the science behind racing. Overall, building a Formula One racing simulator is more than a technical exercise—it’s an immersive STEM project that inspires creativity, fosters practical skills, and prepares students for careers in engineering, technology, and beyond.


  • Real-World Engineering Experience

Designing a racing simulator involves mechanical systems, electronics, and software integration—mirroring the multidisciplinary work of automotive engineers and F1 teams.


  • Application of Physics and Mathematics

Students learn concepts like force, friction, acceleration, and aerodynamics, applying them to vehicle handling and racing dynamics in a practical context.


  • Hands-On Programming Skills

Creating the simulator’s software, from motion control to telemetry data tracking, teaches coding, sensor integration, and real-time system management.


  • Problem-Solving and Critical Thinking

Building a simulator requires troubleshooting, testing, and iterative improvements, helping students develop resilience and analytical skills.


  • Exposure to STEM Careers in Motorsport and Technology

Students gain insight into careers in automotive engineering, robotics, simulation technology, and data analytics—all growing STEM fields.


  • Teamwork and Project Management

Collaborating on design, construction, and software development enhances teamwork, planning, and project management skills.


  • Creativity and Innovation

From designing the cockpit to fine-tuning controls, students can experiment with innovative solutions to improve realism, performance, and user experience.


  • Interactive Learning and Immediate Feedback

Every lap in the simulator provides instant feedback on vehicle behavior and system performance, reinforcing learning through practical experimentation.

Remote Underwater Vehicle

Building a working subsea ROV is an exciting STEM project that combines engineering, technology, and scientific exploration. It challenges students to think critically and apply real-world skills while exploring the underwater world. A marine based project adds additional challenges to the engineering process as compared to aviation and motorsport projects due to the increased environmental demands including pressure, watertightness, corosion, and vicous fluid hydrodynamics. Building a subsea ROV is more than a project—it’s a hands-on STEM adventure that teaches engineering, problem-solving, and teamwork, all while inspiring curiosity about the world beneath the waves.


  • Hands-On Engineering Experience

Students learn mechanical, electrical, and software engineering as they design propulsion systems, manipulators, and waterproof enclosures for the ROV.


  • Application of Physics and Mathematics

The project reinforces principles like buoyancy, fluid dynamics, and force, showing students how math and physics operate in practical underwater conditions.


  • Programming and Control Systems

Developing the ROV’s control software introduces students to coding, sensor integration, and real-time system feedback.


  • Problem-Solving and Critical Thinking

Navigating underwater obstacles and fine-tuning controls encourages iterative thinking, troubleshooting, and innovation.


  • Exposure to STEM Careers

Students gain insight into careers in marine engineering, robotics, environmental science, and oceanography.


  • Teamwork and Project Management

ROV projects often involve collaboration, budgeting, and scheduling, helping students develop teamwork and organizational skills.


  • Creativity and Innovation

Students can experiment with design, propulsion, and tools, fostering creativity and inventive solutions for real-world challenges.


  • Experiential Learning and Immediate Feedback

Testing the ROV underwater provides immediate results, helping students learn through observation, adjustment, and repeated trials.

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