For many engineering students, the path from the classroom to a professional career is often viewed as a linear progression of textbooks and lab reports. Although, for Kyle McGinley, a junior at Temple University, the bridge between academic theory and real-world impact has been built through a combination of specialized research, teaching, and active professional networking.
McGinley, an electrical and computer engineering major, has spent his time in Philadelphia blending high-level software development with hardware application. His most notable function involves the intersection of artificial intelligence and robotics, specifically designed to alleviate the mental and physical burden placed on caregivers. By integrating Google’s Gemini AI into a robotic companion, McGinley and his peers have developed a tool to assist individuals living with Parkinson’s disease.
This trajectory—from a curious student to a scholarship recipient and research assistant—highlights a broader trend in STEM education: the increasing necessity of “soft skills” and professional affiliations. For McGinley, becoming a Temple University student on IEEE membership perks was not just about adding a line to his resume, but about discovering the communication tools necessary to lead technical projects.
Bridging the Gap in Parkinson’s Care
The motivation for McGinley’s research was deeply personal. Observing his grandmother’s struggle while caring for his grandfather revealed a critical gap in home healthcare: the overwhelming mental load of managing medications and appointments. This realization led him to the university’s Computer Fusion Lab, where he works under the supervision of Li Bai, a professor of electrical and computer engineering and an IEEE Senior Member.
Working alongside three classmates, McGinley helped rebuild an older lab robot, transforming it into an AI-integrated android. The team utilized Python and C++ for the robot’s control, perception, and behavior, while implementing Gemini AI to handle routine but essential tasks. The robot is designed to manage medication reminders and set alarms for doctor visits, acting as a cognitive aid for the caregiver rather than a replacement for human touch.
“This was one of the cool things that drew me to working in the robotics field,” McGinley said. “Something where AI could be used to help caregivers do simple tasks.”
The Role of Mentorship and Peer Instruction
Beyond his research, McGinley serves as a teaching assistant for a digital circuit design course. In a classroom of 35 students, he acts as the primary translator between complex professorial lectures and student comprehension. This role requires him to be as comfortable with interpersonal communication as he is with technical debugging.
Much of his time in the lab is spent helping students navigate the complexities of field-programmable gate array (FPGA) boards and debugging code. This experience has reinforced his belief that the ability to explain technical concepts is just as valuable as the ability to execute them. He notes that while universities excel at teaching students how to retain information, they often overlook the interpersonal dynamics required in a professional engineering environment.
“In school, they don’t teach you how to communicate with people. They only teach you how to remember stuff. Working well with people is one of the most underrated skills that a lot of students don’t understand is important.”
Leveraging Professional Networks via IEEE
McGinley’s entry into the Institute of Electrical and Electronics Engineers (IEEE) student branch at Temple began unexpectedly, prompted by a professor’s offer of extra credit. However, what started as a grade incentive evolved into a leadership role. The student branch recognized his aptitude for organization and communication, appointing him as the club’s historian and social media manager.
In this capacity, McGinley manages event planning, creates promotional materials, and documents the branch’s activities through video and photography. He argues that the accountability required to run a professional organization is a skill that cannot be learned in a lecture hall. He describes the relationship between the student and the organization as a “two-way street,” where his contributions to the club’s visibility are matched by the personal growth he gains in reliability and leadership.
McGinley suggests that joining a professional organization early can open doors to opportunities that are not widely advertised. For him, being active in the IEEE community coincided with receiving the Butz scholarship, an annual award given to electrical and computer engineering undergraduates with a demonstrated interest in AI development, software development, or health education software.
Impact of IEEE Student Involvement
| Focus Area | Academic Experience | Professional Branch Experience |
|---|---|---|
| Communication | Rote memorization and testing | Interpersonal coordination and networking |
| Accountability | Individual assignment deadlines | Responsibility for organizational visibility |
| Opportunity | Standard curriculum access | Access to scholarships and research labs |
A Non-Linear Path to Engineering
McGinley’s journey to Temple University was not immediate. After graduating high school in 2018, he spent time recovering from a sports injury, which initially led him to consider physical therapy. However, a lifelong aptitude for repairing cars and fixing household electronics—a trait shared with his father—eventually pointed him toward engineering.
He began his higher education at Montgomery County Community College in Blue Bell, Pennsylvania, where he balanced work with a variety of introductory courses. It was here that his interest in computing and electrical engineering solidified, eventually leading him to transfer to Temple University to pursue his bachelor’s degree.
Looking ahead, McGinley aims to transition from the academic environment to the industrial sector. His long-term goal is to move into project management or a technical lead role, focusing on projects that provide tangible benefits to society.
“My career ambition after I graduate is to gain real-world experience in the engineering industry to learn skills outside of academia,” McGinley said. “Long term, I want to do project management or work in a technical lead role, with the primary goal of creating impactful projects that I can be proud of.”
Disclaimer: The robotic companion described is a research project intended for assistance and is not a certified medical device. Individuals seeking care for Parkinson’s disease should consult licensed healthcare providers.
As McGinley continues his junior year, his focus remains on the refinement of the AI android and his responsibilities within the IEEE student branch. He encourages other students to step outside their comfort zones to join such organizations, noting that the risks of entering a fresh social circle are far outweighed by the potential for career-defining opportunities.
We invite readers to share their thoughts on the role of AI in caregiving or their own experiences with professional student organizations in the comments below.
