This study examines how curricular complexity (CC)—modeled via network analysis—shapes post-graduation outcomes for seven engineering programs at a private institution in the Northeastern United States. Post-graduation data, including employment rates, mean salaries, and graduate-school enrollment, were correlated with these CC metrics over a five-year period. Results reveal a significant spectrum of complexity, with Mechanical and Aerospace Engineering (MAE) exhibiting the highest CC per course and Computer Science (CS) the lowest. Higher complexity did not always yield higher immediate salaries—MAE graduates initially had lower starting wages compared to CS. However, MAE graduates showed substantial long-term earnings and the highest rate of pursuing advanced degrees. A Principal Component Analysis explained over 90% of the variance in post-graduation outcomes, highlighting trade-offs between immediate job-market readiness and deeper academic engagement. These findings emphasize the importance of balancing curricular depth and flexibility to optimize student success. This research advances curriculum analytics by providing empirical metrics and actionable insights, enabling institutions to design engineering programs that better align with industry demands, support interdisciplinary learning, and promote holistic professional development.
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