#1 Olive
Eco Navigator
The challenge consisted on designing a teleoperated mobile robot that is capable of identifying, collecting, and sorting trash bins within an office building environment.
The challenge consisted on designing a teleoperated mobile robot that is capable of identifying, collecting, and sorting trash bins within an office building environment.
The challenge was to develop a hygienic, functional, and automated system for high-quality food preparation and service, leveraging automation and robotics technologies.
This challenge enabled participants to identify plastic waste streams and transform them into valuable 3D-printed products using fused filament fabrication (FFF). Participants gained hands-on experience with the entire FFF production chain—from sourcing and producing filament to 3D printing new items. Through this process, they explored the potential of additive manufacturing (AM) as a key driver of the circular economy, turning waste into value.
The challenge involved designing and implementing a minimum viable product (MVP) of an open API that could connect both to a frontend interface and to potential partners. The API was to handle data such as GPS location, live tracking, load, refrigerated and non-refrigerated storage capacities, range, priority, and other essential parameters.
The goal was to generate disassembly and repair instructions from product data and integrate them into an augmented reality (AR) application designed to support repair workers. Participants explored technologies such as large language models and AR, while also developing a viable business model around their solution.
Identifying and separating items in return material streams is challenging, as these streams are typically less organized than supply streams. This challenge encouraged participants to help close the circularity loop by leveraging current technologies to support intelligent return and reuse systems.
The challenge focused on finding ways to return bicycle parts into circulation. Participants were tasked with inspecting materials to determine which components could be recycled, repaired, or reused.
In this challenge, participants explored the circular economy through a real-world use case from the automotive industry. It offered an opportunity to deepen their understanding of circular principles by reimagining the automotive dashboard of the future.
In this challenge, participants explored the circular economy through a real-world use case from the food industry. They were tasked with envisioning an innovative vertical grill that sets new standards in sustainability and functionality.
Participants were challenged to imagine healthcare devices that enhance users' well-being while conserving valuable resources. The task was to develop a sustainable wearable device powered by amorphous solar cells, capable of monitoring key health parameters such as heart rate, blood sugar, and body temperature. The device needed to be energy-independent, eliminating concerns about battery life, and designed to be fashionable, comfortable, reliable, and compact.
In this challenge, participants had the opportunity to expand and enhance a tangible, flexible, and scalable sustainability game based on an existing digital concept. In a multiplayer setting, they created their own economic and sustainable systems, managing natural resources wisely, trading with other players, and making conscious choices about energy sources and production facilities. Every decision had consequences, with players needing to consider the impact on nature and the environment.