Research in Mechanical Engineering at UMaine spans over multiple domains including additive and digital manufacturing, biomechanics, biomimetics, biorobotics, composite materials and structures, computational and experimental fluid dynamics, engineering education, engineering optimization, flight mechanics and flow control, floating offshore structures, materials science and engineering, multiscale solid mechanics, solar-thermal, wind, and wave energy, surrogate modeling, and thermal sciences and engineering. 

Researchers rely on Advanced computing technology for complex computational modeling and simulations, as well as modern laboratories for scientific exploration and experimental investigations in pursuit of innovative technology solutions. Students are active participants in faculty directed research endeavors under federal, state, and industry support. Many research projects are collaborative in nature with partnerships across multiple academic and research units within UMaine and beyond.

Mechanical Engineering students in a lab studying aerodynamics

Aerodynamics, UAVs, & Aerospace Design

Utilizes laboratory experiments and computational models to study airflow, flight control, and dynamics of aerial vehicles, including drones and other aircraft, with applications in harsh environments and bio-inspired aerospace designs.

Mechanical Engineering Lab working on a wind tunnel

Offshore Wind & Renewable Energy Systems

Analyzes offshore wind turbines, floating structures, and tidal energy for advancements in renewable energy systems to enhance performance and efficiency.

Mechanical Engineering student in a lab studying Advanced Materials, Mechanics, & Structures

Advanced Materials, Mechanics, & Structures

Explores the design, testing, and mechanics of advanced and multifunctional materials, including composites, ceramics, and nanomaterials, as well as structures for various engineering applications.

Mechanical Engineer in a lab working with heat transfer systems

Heat Transfer, & Thermal Systems

Investigates innovative HVAC systems, heat transfer processes, and energy transport at various scales, including modeling and experimental methods for thermal systems.

Biomedical Engineering student performing a robotic arm swing demo

Robotics and Biomechanics

Develops robotic systems, biomechanical analysis tools, and wearable technologies for applications in rehabilitation, manufacturing, and motion control.

Engineers working with digital and additive manufacturing

Digital and Additive Manufacturing

Applies advanced manufacturing techniques, including 3D printing, and digital technologies to improve industrial processes and reduce environmental impact.

Robotics students working on advanced techniques to build a robot

Engineering Design and Optimization

Examines novel techniques in enhancing design of complex systems and their optimization by leveraging modeling techniques to improve system performance under various conditions and design constraints.

Group if engineers looking at a Computational Model

Solar Energy Systems

Evaluates photovoltaic and solar thermal energy systems, thermochemistry, and thermal cycling, with a focus on materials and technologies for high-temperature applications.

Students in the ASCC Engineering program demonstrate a model floating wind turbine in the Wind/Wave lab

Computational Modeling and Simulation

Applies computational modeling, analysis, and multiscale methods to understand and improve material and structural behaviors.

An engineering working in a hydrophobic and surface technologies lab

Hydrophobic & Surface Technologies

Develops innovative surface technologies like superhydrophobic coatings and PFAS-free solutions for applications requiring advanced liquid and droplet control.