| Design Objective - BounceFly |
| Design
a new product that exploits the energy generated
by the human body in novel and creative ways. |
| Understand/Observe - BounceFly |
| • Identified different types of human energy and different applications for any type of energy to help narrow the scope |
| Visualize - BounceFly |
• Held multiple brainstorming sessions to generate a number of possible avenues for a solution • Met with team members on periodically to share ideas and build upon each other's thoughts, sketching on table napkins |
| Evaluate/Refine - BounceFly |
| • Once a concept was decided the product was modelled in SolidWorks, a story board was created, and a context story was written around BounceFly for the design contest submission. |
| Implement - BounceFly |
| • We are currently exploring the development of BounceFly and looking for a manufacturing partner. |
| Design Objective - Helicopter |
Design and build a landing array and computer enclosure for an unmanned helicopter. The assembly must be lightweight and protect the helicopter and computer in the event of a crash. The components are to be shipped in pieces so they must be easily assembled. |
| Understand/Observe - Helicopter |
• Talked to team leads about design goals • Took measurements of the helicopter and modeled the helicopter frame in SolidWorks to identify mounting points |
| Visualize - Helicopter |
• Sketched out concepts for frame shape, mounting solution, structural members, and assembly points • Evaluated different materials |
| Evaluate/Refine - Helicopter |
• Designed and built one prototype for testing • After viewing prototype deformation during a crash, created a tool to align and bend the frame back into position |
| Implement - Helicopter |
• Updated drawings for manufacturing four additional sets • Manufactured and assembled parts • Managed and instructed an intern student to manufacture parts |
| Design Objective - TimeNExT |
Envision future concepts in timekeeping devices in the year 2154. Examine ways to embody and communicate time on an individual level so that it is both personal and portable. |
| Understand/Observe - TimeNExT |
• Postulated what will change and what won’t change in 150 years • Reviewed long-term emerging technologies |
| Visualize - TimeNExT |
• Brainstormed ideas starting with general categories and narrowing down solution criteria • Sketched concepts out on paper |
| Evaluate/Refine - TimeNExT |
| • Prepared the presentation of the solution and continuously refined concepts |
| Design Objective - Ball Attach |
Redesign a robotic semiconductor assembly system that attaches 352 three-quarter-millimeter spherical lead balls to the surface of a microchip. The goal is to improve speed, reliability, and automation. |
| Understand/Observe - Ball Attach |
• Learned the existing system design and constraints • Learned ladder logic to control programmable logic control (PLC) devices |
| Visualize - Ball Attach |
• Sketched possible solution on whiteboards and paper • Met with engineering mentor to brainstorm solutions |
| Evaluate/Refine - Ball Attach |
• Modeled design in AutoCAD • Experimented with different ball pickup and drop off sequences for increased reliability |
| Implement - Ball Attach |
• Created part drawings to send out for machining • Ordered new OEM parts • Reprogrammed Seiko robot and Omron PLC devices • Installed, integrated, and tested new system |
| Design Objective - Wheelchair Back |
Design a system to incorporate an Obus Forme backrest into a standard wheelchair frame. Make use of the Obus Forme posture support in the design. |
| Understand/Observe - Wheelchair Back |
• Met with marketing and engineering leads to gather requirements • Used previous experience with visiting nursing homes to build context |
| Visualize - Wheelchair Back |
| • Sketched concepts for mounting and tensioning solutions on paper |
| Evaluate/Refine - Wheelchair Back |
• Researched and evaluated alternative component parts • Constructed and iterated through numerous prototypes • Presented prototypes in front of marketing and engineering to evaluate for product marketing and cost • Created three sizing ranges for different sized wheelchairs |
| Implement - Wheelchair Back |
| • Created part drawings, build of materials, and assembly processes, and delivered design specifications to engineering and manufacturing |
| Design Objective - Thermal Acoustic |
| A customer has raised an issue about the noise of a Nortel system in their unique application. Find a solution to make the system quieter. |
| Understand/Observe - Thermal Acoustic |
• Reviewed system installation requirements to reproduce environment • Identified major heat generating processors on the circuit boards |
| Evaluate/Refine - Thermal Acoustic |
• Mounted thermocouples to all major processors on the circuit board to measure surface heat • Calculated die temperature based on surface temperature • Mounted thermistor anemometers to the air pathways to measure airflow • Reduced fan airflow in steps to measure temperature levels • Placed system inside an anechoic chamber to measure sound levels under different conditions |
| Design Objective - Battery Enclosure |
Create a lightweight enclosure to house stacks of rechargeable batteries for a solar-powered car. The enclosure must allow for easy installation
and removal of battery stacks for competition
manipulation and also minimize space and
weight. |
| Understand/Observe - Battery Enclosure |
• Met with mechanical team leads to discuss constraints • Measured solar car cavity and battery stack sizes |
| Visualize - Battery Enclosure |
• Sketched out numerous concepts on paper and modeled the design in SolidWorks |
| Implement - Battery Enclosure |
| • Constructed the battery enclosure and delivered it to the mechanical team |