What is the role of the CEID in the innovation and entrepreneurship process at Yale? “CEID is a place where we help people unlock a new threshold of knowledge,” is the answer to this question given to me by a staff member of the Center for Engineering, Innovation and Design (“CEID”). I found this response profound. He said that his statement was a paraphrase of a statement by Kahlil Gibran: “If he is indeed wise he does not bid you enter the house of his wisdom, but rather leads you to the threshold of your own mind.” Indeed CEID has an aura of creativity and magic. Magic, in the sense that a sculptor takes a block of granite and creates a magnificent sculpture, or an artist takes a blank canvas and creates a stunning visual image. All acts of creativity raise the questions: Where does inspiration come from? And what force or power is directing the hand of the sculptor or artist?
MENG 404, is an extraordinary collaboration between the Yale School of Medicine (“Med School”) and the School of Engineering and Applied Sciences. This course was situated in the CEID. The student-led projects that were produced in MENG 404 are prima facie evidence that magic can be based in reality. MENG 404 is officially described as a “design-based course where students tackle real-world clinical needs and conceptualize, ideate, and prototype devices to positively impact patients.” The cool part is that Yale Med School faculty and a resident provided four design opportunities and acted as mentors throughout the term. The unofficial description should be what a student said, “It was very cool to put our experiences to another level.” Moreover, he commented, “Joe [Dr. Zinter] and Richard [Dr. Fan] met the students where they were and pushed them to new levels.”
This week, the culmination of 15 weeks of hard work, creativity and innovation was on display at the CEID. Four end of term projects for MENG 404 were presented. These presentations were a look into the future of medical technology. Students created impactful solutions to real-world problems that help patients, said Dr. Roberts, one of the faculty mentors. A common element of the devices is that they improve the quality of life for patients. I was blown away, as usual, by the quality of student-led innovation and invention. Also, kudos to Joe and Richard for their vision to design such a meaningful learning experience and for their execution in pulling off an innovative collaboration between the Med School and the Engineering Department. Kudos to all of the people who had the foresight to understand the impact of what Joe and Richard were proposing, and the wisdom to approve offering MENG 404.
Proof of concept through prototyping is the basis of the course. The four biomedical device prototypes are described here.
- A device that aids in the management of epilepsy by accurately counting seizures. People afflicted with epilepsy are notoriously bad at recalling the number of seizures they experience. This information is important in providing doctors with information in order to prescribe the appropriate medication and dosage.
- A surgical assist device for throat and neck surgery. The device is deemed so innovative that it could be used as a stand-alone enhancing a surgeon’s ability to reach the throat cavity in a minimally invasive manner. This approach would also reduce patient trauma and disfiguration of the patient’s face and head. Also one of the med school professors suggested that the student-created device could be an add-on to the da Vinci surgical robot which cost $1.5 million.
- Keeping tissue alive and healthy is a critical issue for transplantation. During the Q & A period, one of the transplantation experts working with the student team said that the student project device prototype moves transplantation in New Haven to a new level.
- A novel at-home drug delivery system for pediatric hemophilia patients. The user-centered design approach as espoused by the staff of the CEID aided the students in designing a device that focused on usability for pediatric patients. It is named the Power Pack; the pediatric patients are told that the device will give them power. One of the students commented that they were “Lucky to have the CEID as a resource to use; the 3D printer enabled the team to fabricate the prototype.” She continued stating, “Such a project would have been difficult to fabricate if they had to use the traditional mode of machine fabrication.”
At CEID students used modern manufacturing methods to bring their designs to reality. The four biomedical devices that were created during the semester in MENG 404 are exemplars of how CEID is a transformative space that empowers students to prototype what they can conceive and design. One of the lessons from my research is that by fostering an environment of creativity and collaboration between medicine and engineering, magical realism is possible for students.
Whether the biomedical devices discussed here will be overwhelmingly significant in improving patients’ lives, only time will tell. But we do know right now that magic is real. Napoleon Hill, said “What the mind can conceive and believe, the mind can achieve.”








