Undergraduate

The required curriculum for aeronautical engineering is very similar to mechanical engineering, emphasizing applied mechanics and thermal sciences for the aircraft's configuration, structural design, propulsion systems, and control systems. Using the same knowledge, aeronautical engineers may also be involved in the design of land and marine vehicles. The recent development of autonomous unmanned aerial vehicles (UAV) integrating the Global Position System (GPS) and the potential of alternative propulsion systems, such as solar power or fuel cells, are creating new windows of opportunity for aeronautical engineers.

The courses proposed in this area of Specialization are:

• ME/EE/CS 3420 – Introduction to autonomous robotic systems,
• ME 4030 – Aerodynamics,
• ME 4040 – Propulsion systems,
• ME 4090 – Mechanical Engineering Analysis,
• ME 4120 – Control of Mechanical Systems,

A mechanical engineering degree with a biomechanical concentration prepares students for traditional mechanical engineering careers and opportunities in this growing subfield of biomedical engineering. Training in biomechanical engineering will enable mechanical engineers to interact with an interdisciplinary group of engineers and biomedical professionals. Engineers trained in biomechanical engineering may find career opportunities in designing products involving interaction with the human body, such as assistive technologies and enabling devices, safety equipment, and orthopedic and medical devices. Research topics include kinematics of human motion and biomechanical devices, strength and response of hard and soft tissue, and novel injury prevention and rehabilitation technology.

The courses proposed in this area of Specialization are:

• ME 4090 – Mechanical Engineering Analysis,
• ME 4230 – Finite Element Analysis,
• ME 4500 – Biomechanics of Human Movement,
• ME 4510 – Mechanics of Biological Tissues,
• ME 4520 – Impact Biomechanics.
   

All mechanical engineers must be proficient in general mechanics (statics, dynamics, materials, and control), which best distinguishes mechanical engineering from other engineering disciplines. With this area of specialization in engineering mechanics, mechanical engineers will strengthen their skills in general mechanics for the study of complex structures and mechanical systems.

The courses proposed in this area of specialization are:

• ME 4090 – Mechanical Engineering Analysis,
• ME 4110 Vibrational Analysis,
• ME 4120 – Control of Mechanical Systems,
• ME 4220, Optimization of Mechanical Engineering Systems,
• ME 4230 – Finite Element Analysis,
• ME 4300 Properties and Selection of Engineering Materials,
• ME 4510 – Mechanics of Biological Tissue.
   

A Material Sciences Mechanical Engineer studies the properties and behaviors of different materials to determine their suitability for engineering applications. 
They analyze how materials respond to stress, temperature, corrosion, and other environmental factors. They collaborate with design and manufacturing teams to select the best materials for specific products or components. Their work often involves developing new materials or enhancing existing ones to improve strength, durability, or cost-efficiency. Additionally, they ensure that materials meet industry standards and regulations for safety and quality.
The courses proposed in this area of Specialization are:

• ME 4090 – Mechanical Engineering Analysis,
• ME 4230 – Finite Element Analysis,
• ME/MSE 4141 – Engineering of Materials,
• ME 4300 – Properties and Selection of Engineering Materials,
• ME 4510 – Mechanics of Biological Tissues,
   

A mechanical engineer specializing in product development focuses on developing innovative mechanical systems and components. They begin by understanding project requirements and conducting research to inform their design approach. They create detailed technical drawings and 3D models of machines or mechanical parts and perform simulations and stress analysis to ensure that the designs meet performance, safety, and reliability standards. They collaborate with cross-functional teams, including manufacturing and quality assurance, to bring designs to production throughout the process.

The courses proposed in this area of Specialization are:

• ME 4110 Vibrational Analysis,
• ME 4220, Optimization of Mechanical Engineering Systems,
• ME 4230 – Finite Element Analysis,
• ME 4300 Properties and Selection of Engineering Materials,
• ME 4400 – Fundamental of vehicle design.
   

A mechanical engineer specializing in robotics designs and builds mechanical systems for robotic applications. Their work involves selecting suitable materials and actuators to ensure optimal movement, strength, and durability. They collaborate closely with electrical and software engineers to integrate mechanical parts with control systems and sensors. Prototyping and testing are key to evaluating performance, identifying issues, and refining designs.

The courses proposed in this area of Specialization are:

• ME/EE/CS 3420 – Introduction to autonomous robotic systems,
• ME 4110 Vibrational Analysis,
• ME 4120 – Control of Mechanical Systems,
• ME 4230 – Finite Element Analysis,
• ME 4810 – Introduction to Robotics.
   

Mechanical engineers specializing in thermal systems mainly deal with producing and converting energy required for human needs and other systems. They design efficient engines and power plants to provide mechanical power for different machines and electrical power for society. They design heating, ventilation, and air-conditioning systems to provide a comfortable living and working environment. They design solar and wind power stations to extract clean energy from nature. They predict and control the flow of water and air to minimize the adverse effects of pollutants.

The courses proposed in this area of Specialization are:

• ME 4030 – Aerodynamics,
• ME 4040 – Propulsion systems,
• ME 4070 – HVAC Systems,
• ME 4090 – Mechanical Engineering Analysis,
• ME 4180 – Energy Systems and Sustainability,
• ME 4260 – Advanced Thermodynamics and Fluid Mechanics.