From rockets to robots, power plants to biomechanical parts, mechanical engineers put both energy and machines to work. Wherever there is motion or energy, mechanical engineers have played a role in the innovations that define modern life.
Mechanical engineering is a broad discipline, covering topics that include aerodynamics, medical devices, energy systems, system control, robotics, new product development, materials development, structural integrity, manufacturing, automotive systems, and space vehicle systems. The mechanical engineering department offers a solid foundation in mechanical engineering fundamentals with options for students to concentrate their studies in several specific areas of engineering.
Mechanical engineers work in many different industries and businesses as product developers, researchers, prototype designers, automotive engineers, aerospace engineers, management consultants, among many others. Because of their comprehensive training, mechanical engineers are often called upon to serve in senior leadership positions.
Well-equipped labs and facilities offer students the opportunity to build models and prototypes to demonstrate particular engineering design concepts. Experimentation and research are encouraged and there are opportunities for students to enrich their undergraduate and graduate experience by engaging in faculty-led research in areas such as sustainable energy systems, biomedical and assistive device technology, systems analysis, robotics, vibrations, and automotive and aerospace engineering.
The BS degree in mechanical engineering is accredited by the Engineering Accreditation Commission of ABET, www.abet.org. For Enrollment and Graduation Data, Program Educational Objectives, and Student Outcomes, please visit the college’s Accreditation page.
Undergraduate options in aerospace, automotive, bioengineering, and energy and the environment
The aerospace engineering option allows for specialized study in all engineering aspects of air- and space-borne vehicles. Aerospace engineering focuses on developing aircraft, spacecraft, and the mechanical systems that make both possible. Also referred to as aeronautical engineering, aerospace engineering deals with designing, building, and testing airborne and space vehicles, from airplanes and helicopters to rockets, missiles, satellites, and spacecraft. This option is part of the mechanical engineering BS degree.
Modern automotive engineering entails the design of engines and automotive components such as braking, powertrain systems, vehicle dynamics, lighting systems, transmission, and fuel economy. The automotive engineering option offers specialized advanced electives that provide a comprehensive understanding of automotive design and manufacturing, vehicle power plants, dynamics, control systems, and more. This option is part of the mechanical engineering BS degree.
Bioengineering is the application of engineering fundamentals to the principles of biology, the life sciences, and the physical sciences. The result is the creation of advanced solutions to some of the most pressing biological challenges, from the environment, agriculture, and genetic engineering, to pharmaceuticals, medicine, and health care. This option is part of the mechanical engineering BS degree.
More than ever there is an intensive focus on identifying, developing, and effectively utilizing alternative energy systems. The energy and environment option is focused on the contemporary issues facing the fields of energy and the environment and how engineers can best develop modern technologies that are kinder to the environment while providing the energy resources we need. This option is part of the mechanical engineering BS degree.
Mechanical engineers put energy and machines to work–from rockets, robots, and airplanes to automobiles, satellites, and renewable energy systems. In RIT’s mechanical engineering BS degree you'll study math, science, physics, engineering science, and engineering systems.
A mechanical engineering master’s degree that focuses on the in-depth examination of dynamics, robotics, nanotechnology, biomechanics, and energy systems to prepare you to enter a career in industry or research.
Conduct research in nano-engineering, design methods, and technologies for micro- and nano-scaled systems. This microsystems engineering doctorate is a multidisciplinary program that addresses the technical challenges of micro- and nano-systems.
The minor in mechanical engineering exposes students to the core foundations of the discipline. Courses help non-majors explore high-technology careers and communicate more effectively with engineers on project teams. The minor consists of a five-course sequence that builds on prerequisite knowledge from calculus and engineering mechanics. Elective courses provide additional depth of knowledge in an area of individual student interest.
Led by Dr. Alfonso Fuentes-Aznar, the research performed at RIT’s Gear Research Laboratory is focused on the study of new gear geometries and the development of new methodologies for advanced design, analysis, simulation, and troubleshooting of gear drives.
The Discrete Microfluidics Laboratory studies the physics of small droplets. The goal is to understand fluid interactions and leverage the physics of microdroplets for innovative advancements in current technologies.
The Smart Manufacturing Research Group (SMRG), under the leadership of Dr. Rui Liu, is dedicated to investigating the research problems related to smart manufacturing on the fundamental level and expanding the research scope by exploring new research topics and introducing state-of-the art technologies.
The Respiratory Technologies Lab (RTL) specializes in the mechanics of inhaled particles. Its current research focus is to understand the relationship between tobacco product characteristics, behavior, and health effect. The RTL studies e-cigarettes, waterpipe, cigarettes, and tobacco heated products.
Dr. Isaac Perez-Raya conducts research on interfacial phenomena such as boiling heat transfer and applies artificial intelligence (AI) in modeling of intracranial blood flow and breast cancer. Other relevant fields of study include pollution monitoring and optimization problems.
The Advanced Materials Laboratory focuses on X-ray diffraction (both powder and high resolution), scanning probe microscopies, optical microscopy, microhardness testing, and specimen preparation by mechanical and electrochemical polishing.
Ph.D. student Jade Myers, who uses 3D print technology to develop upper and lower limb prostheses for amputees, was a top three winner of the nTopology-EOS 2022 Responsible Part Challenge, an international design competition.
RIT students participated in this summer’s Studio930 design consultancy, an interdisciplinary studio that focuses on the development of assistive healthcare solutions by leveraging the use of technology, art, and design. The 10-week long summer experience concluded with a student exhibition inside RIT’s LiveAbility Lab, a close partnership between RIT and the Al Sigl Community of Agencies.
Pi Tau Sigma is the mechanical engineering national honor society. Membership, by invitation, is open to students ranked in the upper third of their class in their fourth and fifth years at RIT. Chapter activities are tailored to foster high ideals in the engineering profession, support departmental activities, and promote professionalism.
Tau Beta Pi
This national engineering honor society was founded to celebrate those who have conferred honor upon their alma mater by distinguished scholarship and exemplary character as students in engineering, or by their attainments as alumni in the field of engineering, and to foster a spirit of liberal culture in engineering colleges. Election to Tau Beta Pi is one of the highest honors bestowed on an engineering student by his or her peers.
The student chapter of ASME offers educational, technical, and social activities. It helps students develop leadership skills and leads to contacts with engineers in industry and students at other colleges within the region. The student chapter is active and works closely with the local professional chapter.
Society of Automotive Engineers and FSAE Competition Team
The purpose of the RIT Society of Automotive Engineers is to give students the opportunity to meet with senior engineers in industry and provide students a chance to apply their classroom knowledge in various projects.
National Society of Black Engineers
The student chapter of the National Society of Black Engineers is dedicated to the retention, recruitment, and successful graduation of its members.
The Society of Hispanic Professional Engineers is an association of professionals and students in engineering, science, technology, business, and other related disciplines at RIT. SHPE’s aim is to identify and promote professional growth opportunities for Hispanic students.
The Society of Women Engineers is a student-run organization that organizes and hosts guest speakers, high school outreach, community activities, tours, social events, and events with other student organizations. The RIT chapter is strongly committed to encouraging women in their pursuit of careers in engineering or related fields.
Professional organizations and societies provide opportunities for students to enhance their professional development, including society-sponsored conferences, symposia, and workshops, through local and student chapter meetings and activities. Explore professional organizations and societies for opportunities to volunteer, get involved, and shape your career.
Our award-winning SAE team, builds a car from the ground up every year. Purchasing only the engine block, tires, and bulk materials, it is entirely designed and constructed by our students to compete in national and international competitions.