Purpose
This project immerses students in a hands-on learning experience where they collaboratively engineer assistive devices using physics principles to improve the quality of life for elderly individuals with mobility or cognitive challenges. Throughout the project, students enhance their critical thinking and problem-solving skills by iteratively designing, testing, and refining their prototypes based on user feedback. They also practice effective communication and collaboration by engaging in peer-review processes and showcasing their creations at an 'Innovator's Fair', fostering deeper understanding and empathy through real-world application.
Learning goals
Students will gain proficiency in applying physics concepts such as forces, mechanics, and material properties to real-world engineering challenges. They will enhance their collaboration skills through co-designing projects, shared decision-making, and assuming leadership roles. Students will hone critical thinking and problem-solving abilities by devising innovative solutions tailored to authentic user needs. They will also develop effective communication skills by practicing empathy, presenting their prototypes, and reflecting on the feedback received. Through self-directed learning, they will engage in reflective practices to guide their progress and personal growth.
Products
Throughout this learning experience, students will create iterative prototypes of an assistive device, documented through technical diagrams and detailed design journals. By the end of the project, student teams will present a refined, functional prototype at the 'Innovator's Fair,' accompanied by a comprehensive presentation outlining their iterative process, user feedback insights, and the physics principles applied. Additionally, students will compile a portfolio reflecting their problem-solving journey, including peer-review feedback, personal reflections, and collaborative decision-making evidence.
Launch
Begin the learning experience with a dynamic 'Physics in Action' workshop, where students dive into hands-on activities at various stations. These stations will demonstrate crucial physics concepts related to assistive device design, such as forces, mechanics, and materials science. By engaging with these tangible examples collectively, students will brainstorm innovative ideas and generate initial plans for their projects. This collaborative kickoff will not only build foundational understanding but also spark curiosity and encourage creative exploration within the group. Utilize this momentum to guide students in forming teams and generating initial project briefs.
Exhibition
The 'Innovator's Fair' will serve as a dynamic platform for students to showcase their completed assistive device prototypes. Each team will present their journey through a compelling narrative that highlights their design process, challenges overcome, and insights drawn from user feedback. Attendees will have the opportunity to interact with devices and engage in meaningful discussions with students about their engineering decisions and the physics principles applied. This immersive experience will not only celebrate the students' achievements but also foster community awareness and appreciation of innovative solutions aimed at improving elderly mobility and cognition.
