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The Department of Naval Architecture and Marine Engineering provides graduate programs culminating in Master of Science (MS), Master of Science in Engineering (MSE), and Doctor of Philosophy (PhD) degrees. Students can also pursue combined degree pathways, including an integrated MSE/MBA program, in partnership with other university departments, all overseen by the Horace H. Rackham School of Graduate Studies. Our vibrant alumni community fosters professional connections between students, recent graduates, and leading organizations. NAME careers are dynamic, diverse, and continually transforming—with our graduates driving this evolution. This program enables engineers to specialize in cutting-edge and expanding maritime fields, organized into three primary focus areas:
Engineering for marine environments demands expertise in evaluating intricate systems, assessing hydrodynamic properties, structural durability, and dynamic behaviors. Central to this is marine mechanics, which explores the core physics of maritime systems while creating and utilizing analytical tools. From ships to offshore oil platforms to renewable energy devices, all require foundational mechanical analysis and computational modeling techniques.
In modern marine design, naval architects may employ state-of-the-art design approaches to address specific challenges or oversee comprehensive design coordination, guiding multidisciplinary development teams. They also frequently take leadership positions in marine systems operations. The department's educational philosophy emphasizes interdisciplinary engineering and simultaneous consideration of performance, production, and lifecycle sustainability from initial design stages. Today's marine projects frequently involve collaborative product development teams, with specialized study options in design, marine engineering, maritime operations, shipbuilding, or uncertainty-based optimization.
Underwater marine robots rely on computer vision and acoustic navigation instead of GPS to map and navigate their surroundings autonomously. These technological advancements have enabled research in autonomous underwater/ground vehicles, automotive safety systems, and automated hull inspections. Creating effective control systems is equally crucial for robotic applications, with parallel developments in propulsion systems, fuel cells, and energy storage optimization for marine and automotive industries.