Arizona State University Polytechnic students in the Simulation Building engage in advanced robotics


Interdisciplinary projects

Leveraging polytechnic mindsets to solve complex problems

Engineering today demands more than technical proficiency in a single discipline; it requires an interdisciplinary mindset that integrates knowledge across fields to solve increasingly complex challenges. Students preparing for careers in engineering must develop a strong foundation not only in their chosen specialties but also in complementary areas such as systems thinking, sustainability, data science, business, and human-centered design. This breadth of learning ensures they are adaptable, collaborative, and prepared to lead innovation in diverse industries.

By choosing to study and learn at Arizona State University’s Polytechnic campus, students are exposed to a distinctive educational model that emphasizes polytechnic values: practical, hands-on learning, cross-disciplinary collaboration, and real-world problem solving. Polytechnic students cultivate the technical depth and broad perspective necessary to address global challenges, preparing them to become engineers who not only master their fields but also bridge disciplines to create integrated solutions for the future.

The Innovation Showcase celebrates this spirit of interdisciplinary excellence. The projects presented here represent the culmination of collaborative work across multiple engineering disciplines as students tackle real-world problems with creativity and technical rigor.

  • This project explores how a chosen technology may evolve by 2036 through a month-long foresight process. It involves developing and presenting three scenario-based futures, business as usual, principled and unprincipled, through concise presentations that examine potential impacts and encourage critical…

  • This project explores how a chosen technology may evolve by 2036 through a month-long foresight process. It involves developing and presenting three scenario-based futures, business as usual, principled and unprincipled, through concise presentations that examine potential impacts and encourage critical…

  • This project explores how a chosen technology may evolve by 2036 through a month-long foresight process. It involves developing and presenting three scenario-based futures, business as usual, principled and unprincipled, through concise presentations that examine potential impacts and encourage critical…

  • This project explores how a chosen technology may evolve by 2036 through a month-long foresight process. It involves developing and presenting three scenario-based futures, business as usual, principled and unprincipled, through concise presentations that examine potential impacts and encourage critical…

  • This project explores how a chosen technology may evolve by 2036 through a month-long foresight process. It involves developing and presenting three scenario-based futures, business as usual, principled and unprincipled, through concise presentations that examine potential impacts and encourage critical…

  • This project explores how a chosen technology may evolve by 2036 through a month-long foresight process. It involves developing and presenting three scenario-based futures, business as usual, principled and unprincipled, through concise presentations that examine potential impacts and encourage critical…

  • This project explores how a chosen technology may evolve by 2036 through a month-long foresight process. It involves developing and presenting three scenario-based futures, business as usual, principled and unprincipled, through concise presentations that examine potential impacts and encourage critical…

  • This project explores how a chosen technology may evolve by 2036 through a month-long foresight process. It involves developing and presenting three scenario-based futures, business as usual, principled and unprincipled, through concise presentations that examine potential impacts and encourage critical…

  • This project explores how a chosen technology may evolve by 2036 through a month-long foresight process. It involves developing and presenting three scenario-based futures, business as usual, principled and unprincipled, through concise presentations that examine potential impacts and encourage critical…

  • This project explores how a chosen technology may evolve by 2036 through a month-long foresight process. It involves developing and presenting three scenario-based futures, business as usual, principled and unprincipled, through concise presentations that examine potential impacts and encourage critical…

  • This project explores how a chosen technology may evolve by 2036 through a month-long foresight process. It involves developing and presenting three scenario-based futures, business as usual, principled and unprincipled, through concise presentations that examine potential impacts and encourage critical…

  • Producing tritium for nuclear fusion requires materials that can perform reliably under controlled conditions. This project addresses that challenge by developing lithium-based ceramic materials with engineered porous structures. The design focuses on controlling pore size and distribution to improve material…

  • Handling air-sensitive materials for electron microscopy can be difficult because exposure to air may alter or damage samples. This project addresses that challenge by developing a sealed transfer method that protects materials during handling and movement. The system maintains a…

  • Heating materials to extremely high temperatures using conventional methods can be time-consuming and energy-intensive. This project addresses that challenge by developing an electrically powered system capable of rapidly heating materials to temperatures up to 3000°C. The design controls power input,…

  • Automating object handling tasks requires systems that can operate reliably using different power sources. This project addresses that challenge by developing a robotic arm powered by compressed air. The system uses pneumatic pistons to control movement and a suction-based vacuum…

  • Understanding how temperature differences affect energy conversion is important for evaluating heat engine performance. This project addresses that question by studying a Stirling engine, which converts thermal energy into mechanical motion through cyclic expansion and contraction of a gas. The…

  • No project description available. Sponsor

  • This project involves designing a wearable health monitor that detects unsafe environments and supports worker safety. The device identifies hazards such as air particulates and exposed wires, then communicates this information to a supervisor’s smart device, enabling real-time monitoring and…

  • No project description available. Sponsor

  • This project involves developing a remote-operated fire suppression system designed to detect hazardous conditions and respond to threats. The device uses smoke, heat and gas sensors to monitor environments, communicates risk through alerts and alarms, and deploys a mobile targeting…

  • This project involves a demonstration with a robotic car.

  • This project involves a demonstration with a robotic car.

  • This project involves a demonstration with a robotic car.

  • This project involves a demonstration with a robotic car.

  • This project involves a demonstration with a robotic car.

  • This project involves a demonstration with a robotic car.

  • This project involves a demonstration with a robotic car.

  • This project involves a demonstration with a robotic car.

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