Mechanical Engineering, MS

mechanical-engineering-ms-resource-space-06132025

Mechanical Engineering Masters Program

Mechanical Engineering (ME) is a foundational discipline that drives technological innovation, economic growth, and quality of life across virtually every industry. The program focuses on three specialized areas: Advanced Materials and Manufacturing, Thermal Systems, and Sustainable Energy.

1. Advanced Materials and Manufacturing (AMM)
This focus area builds upon Tulane’s strengths in materials science, nanotechnology, and advanced manufacturing techniques. With rapid advancements in areas such as additive manufacturing (3D printing), composites, and high-performance materials, there is a growing need for engineers trained in the design, processing, and application of next-generation materials. The AMM concentration equips students with expertise in computational materials science, mechanics of materials, and modern manufacturing techniques, preparing them for careers in industries such as aerospace, automotive, biomedical, and energy sectors.

2. Thermal Systems (TS)
Thermal systems engineering is fundamental to nearly all mechanical engineering applications, from energy production and transportation to industrial processes and HVAC systems. This focus area covers advanced thermodynamics, heat transfer, and fluid mechanics, emphasizing the design and optimization of thermal systems such as power plants, heat exchangers, refrigeration systems, and propulsion technologies. Graduates specializing in thermal systems will be well-prepared to work in industries ranging from aerospace and automotive engineering to manufacturing and energy generation.

3. Sustainable Energy (SE)
With increasing global emphasis on energy efficiency and sustainability, this focus area provides students with expertise in renewable energy technologies, energy storage, and sustainable design practices. Topics will include wind and solar power, fuel cells, battery systems, energy-efficient buildings, and carbon reduction strategies. Engineers trained in sustainable energy will contribute to the transition toward cleaner energy solutions, addressing critical challenges in climate change, environmental impact, and global energy demand.

Upon completion of the MCEN program, graduates will be equipped to:

1. Apply Core Mechanical Engineering Principles: Gain expertise in solid mechanics, thermodynamics, fluid mechanics, dynamics, and materials science, with specialization in their chosen focus area.

2. Design and Optimize Engineering Systems: Develop innovative solutions in advanced manufacturing, thermal systems, or sustainable energy by leveraging computational modeling, simulations, and experimental methods.

3. Conduct Independent Research and Innovation: Utilize theoretical and hands-on research skills to explore emerging technologies, develop novel engineering solutions, and contribute to scientific advancements.

4. Collaborate in Multidisciplinary Teams: Work effectively in cross-disciplinary environments, integrating knowledge from mechanical engineering, materials science, energy systems, and applied physics to solve complex engineering challenges.

Graduates of the MCEN program will be well-prepared for leadership roles in a variety of industries, including:

  • Aerospace and Defense (aircraft propulsion, thermal control, space systems)
  • Automotive and Transportation (electric vehicles, fuel efficiency, propulsion technologies)
  • Energy and Power Generation (renewable energy, power plants, thermal energy storage)
  • Advanced Manufacturing (additive manufacturing, materials processing, nanotechnology)
  • HVAC and Refrigeration Systems (building energy efficiency, thermal comfort systems)
  • Biomedical Engineering (prosthetics, medical devices, biomechanics)
  • Research Institutions and Academia