Interdisciplinary Experiences in GCSP: Engineering in a Social Context
Engineering solutions don’t just exist in isolation—they interact with economics, security, social structures, and human psychology in ways that can make or break their success. This course challenged me to think beyond the technical, sharpening my ability to analyze engineering’s wider ripple effects. Through class discussions, research papers, and hands-on simulations, I explored how technological determinism and social constructionism influence everything from energy markets to healthcare.
Three activities helped reshape my understanding of engineering’s role in society:
In a sustainability marketplace simulation, I saw firsthand how companies prioritize cost over environmental impact—reinforcing that even the most sustainable technology must be designed with economic feasibility in mind to be widely adopted.
A cybersecurity scenario-building exercise broadened my definition of health risks to include manipulation, data leaks, and intentional misuse, making me think more critically about the unseen vulnerabilities of biomedical technology.
The stem cell and bionics debate revealed how even life-changing healthcare innovations can face massive legal, ethical, and cultural roadblocks. It became clear that "better technology" isn’t enough—it must be framed, communicated, and implemented responsibly.
These courses left me with a strong conviction: if I want to design medical technologies that truly help people, I can’t just focus on making them work—I have to understand the systems they will enter and anticipate who benefits, who gets left behind, and what unintended consequences might arise.
The FSE 150: Grand Challenges for Engineering course gave me my first real exposure to the engineering design process, forcing me to think in structured ways about how ideas move from concept to reality. Two projects were key in this:
Future Solutions Project: My team conceptualized a genetic testing and modification device for color blindness, which pushed me to think critically about stakeholder needs, emerging biotech, and the social and ethical dilemmas of gene therapy. More than just an exercise in technical brainstorming, this project showed me how quickly cutting-edge science is moving into real-world applications—and the importance of shaping its direction with foresight.
GCSP Theme Paper: I explored recent regenerative medicine advancements in bone regeneration, degenerative disc disease, and Parkinson’s Disease, diving into the biology behind these conditions and the technologies being developed to address them. However, I also analyzed how these breakthroughs could exacerbate economic disparities and alter societal perceptions of aging and disability—reminding me that medical innovation isn’t just about what’s possible, but also what’s just.
In SOC 334: Science, Technology, and Society, I also wrote papers on cloud technology’s role in reshaping the workforce and how digital interactions impact family dynamics, both of which reinforced a key realization: technology is never neutral. The same advancements that empower and connect people can also introduce new inequities, insecurities, and social shifts—meaning every innovation requires deliberate and careful consideration of its broader impact.
Key Takeaways & Relevance to Health Theme
These courses fundamentally changed how I think about engineering—not just as problem-solving, but as problem-defining. My GCSP theme of personalized medicine is about far more than making treatments more precise; it’s about ensuring they are accessible, ethical, and beneficial to diverse populations. The lessons I took from these experiences—thinking beyond the lab, questioning assumptions, anticipating unintended consequences, and integrating interdisciplinary perspectives—are exactly what I need to design medical technologies that don’t just exist, but truly serve people in the best way possible.