The unit's purpose is to immerse students in real-world problem-solving by engaging them in collaborative design projects using unconventional materials. Leveraging science principles such as heat transfer, energy transformation, and engineering design, students will create solutions that address community challenges, ultimately fostering critical thinking, teamwork, and effective communication. Through hands-on projects like building insulated lunch containers and cooling stations, students will connect scientific concepts to everyday applications, promoting deeper learning and a sense of responsibility towards community and environmental well-being.

Students will design and test devices that use everyday materials to control or transfer heat energy, applying scientific concepts to innovate solutions that improve comfort in their community. They will collaboratively define criterias for success and constraints while honing critical thinking skills to solve real-world problems. Throughout the project, students will communicate their processes and reflect on their learning, both academically in terms of energy transfer principles and socio-emotionally through team dynamics.

Students will create solar cookers, shade structures, and cooling stations utilizing everyday and recycled materials, focusing on energy transfer and sustainable solutions for community comfort. Throughout the unit, students design wind power spinners and rubber band power devices demonstrating energy conversion and motion principles. They will also develop light signal messaging systems to illustrate the concepts of waves and information transfer, enabling communication during a "Survivor: Heat Island" exhibition challenge. Each product will be accompanied by a reflective journal explaining the scientific principles applied and the impact envisioned for community or environmental improvement.

To kick off the learning experience, have students engage in "CSI: Heat Island Mystery," where they investigate a fictional crash site affected by extreme heat. Using clues around them, such as temperature patterns, objects showing signs of heat effects, and leftover materials, students will hypothesize solutions for survival and communication using innovative heat control and transfer devices. This hands-on, mystery-solving approach will catalyze curiosity and lay the foundation for the unit's exploration of energy, heat transfer, and engineering challenges.

Students will host the "Survivor: Heat Island Challenge" exhibition, featuring their innovative projects at various heat challenge stations. They will demonstrate how their devices address problems related to energy and comfort while explaining the science behind heat transfer and energy transformation. University experts from the Universidad de Monterrey will engage with students, offering feedback and discussing sustainable solutions. Throughout the exhibition, students will practice effective communication, sharing narratives and reflections on their learning experiences. Visitors will have the opportunity to compare and interact with multiple student-designed solutions, fostering a collaborative environment.