The Bachelor of Science in Mechanical Engineering at Roger Williams University is an ABET-accredited, practice-oriented programme that combines core engineering theory with hands-on laboratory work, design projects and industry experience. It suits students who enjoy problem solving, mathematics and building real-world systems — those aiming for careers in design, manufacturing, energy, robotics, or further study in engineering.
What you'll study
This four-year Bachelor of Science programme delivers a solid foundation in fundamental mechanical engineering principles alongside extensive experiential learning. The curriculum covers engineering mathematics, statics and dynamics, mechanics of materials, thermodynamics, fluid mechanics, heat transfer, materials science, control systems and engineering design. Students gain practical skills in computer-aided design (CAD), finite element analysis, instrumentation, sensors and laboratory techniques.
- Early years: focus on calculus, physics, chemistry, introductory programming and core engineering fundamentals to establish analytical skills.
- Mid programme: intermediate mechanical topics such as dynamics, strength of materials, thermodynamics, fluid mechanics, systems modelling and manufacturing processes, paired with laboratory modules.
- Design sequence: multi-semester design and manufacturing projects that emphasise team-based, open-ended problem solving and prototyping using RWU’s workshops and makerspaces.
- Senior capstone: a culminating design project that typically involves industry-sponsored or faculty-led research, application of engineering standards and technical communication.
- Experiential learning: opportunities for internships, cooperative education placements, research assistantships and study abroad to apply classroom learning in real-world settings.
Entry requirements
Applicants should hold a high school diploma or equivalent with a strong background in mathematics and science. Recommended preparatory subjects include calculus (or pre-calculus), algebra, physics and chemistry. Successful candidates typically demonstrate strong problem-solving ability and readiness for a rigorous technical curriculum.
- Academic preparation: coursework in calculus and physics is strongly recommended; exposure to computer science or engineering-related electives is advantageous.
- Admissions evidence: a competitive high-school record, letters of recommendation and a personal statement outlining interest in engineering strengthen an application.
- International applicants: proof of English language proficiency is required where applicable (e.g. recognised English tests or equivalent qualifications).
- Placement: incoming students may take placement assessments in mathematics to determine the appropriate calculus sequence.
Career prospects
Graduates are prepared for technical roles across a wide range of industries, including mechanical design, manufacturing, energy and utilities, robotics and automation, aerospace, automotive, biomedical devices and marine engineering. Common job titles include mechanical engineer, design engineer, test engineer, manufacturing engineer, systems engineer and product development engineer.
- Industry entry: many graduates begin their careers in engineering firms, manufacturing companies, utilities, and technology startups, often supported by internships and co-op experience gained during the degree.
- Professional development: graduates who pursue professional engineering licensure (PE) typically complete an accredited degree, gain qualifying work experience and pass licensing examinations.
- Further study: alumni may continue to master’s or doctoral study in specialised fields such as mechanical engineering, materials science, aerospace engineering or engineering management.
Why study at Roger Williams University
Roger Williams University emphasises small class sizes, close faculty mentorship and a hands-on learning culture, enabling students to work directly with professors on projects and research. The engineering school integrates practical lab work, fabrication facilities and industry partnerships to support applied learning and career readiness.
- Project-based learning: design courses and senior capstones offer sustained, team-based engineering challenges with real-world constraints.
- Facilities and resources: access to workshops, prototyping equipment, labs and computing resources supports development of practical engineering competencies.
- Industry connections: co-op and internship support, plus regional industry ties, help students gain workplace experience and professional networks.
- Interdisciplinary opportunities: students can collaborate across programmes — for example, business, computer science or marine studies — to broaden career options.
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