Case Western Reserve University

What you'll study

The curriculum provides a foundation in core engineering sciences and applied mechanics, combined with laboratory experience, computing and design. Early coursework typically covers engineering mathematics, statics and dynamics, mechanics of materials, thermodynamics, fluid mechanics and materials science. As you progress you will study heat transfer, control systems, machine design, manufacturing processes, computational methods (including finite element analysis) and CAD/CAM.

Hands-on learning is emphasised through laboratory classes, fabrication and instrumentation courses, and a year-long senior capstone design sequence in which multidisciplinary teams take projects from specification through prototyping and testing. Students can choose technical electives and concentration options that reflect faculty strengths and local industry needs, for example robotics and controls, energy systems and thermal sciences, biomechanics and biomedical devices, or advanced manufacturing. Independent study, research projects and internships are available, and students often make use of the university’s innovation resources and makerspace for rapid prototyping and testing.

• Core subjects: calculus-based physics, statics and dynamics, mechanics of materials, thermodynamics, fluid mechanics, materials engineering
• Applied courses: heat transfer, controls, mechanical design, manufacturing, computational methods, instrumentation
• Practical experience: laboratories, design projects, senior capstone design, internships and undergraduate research
• Opportunities for specialisation: robotics, energy, biomechanics/biomedical devices, advanced manufacturing and materials

Entry requirements

Applicants are expected to demonstrate strong achievement in mathematics and science. Typical preparation includes high-school-level calculus (or equivalents), physics and chemistry, with coursework that develops problem-solving and quantitative reasoning. Admission decisions are based on a holistic review of academic record, recommendations, personal statement and extracurricular activities that show interest in engineering or related technical work.

International applicants should present secondary qualifications that are equivalent to U.S. high school completion and meet the university’s English language proficiency requirements. Transfer applicants must present college-level coursework in calculus and introductory physics; placement into the programme may depend on review of prior academic work and completed credits.

Career prospects

Graduates are well prepared for careers across a wide range of sectors. Common employment areas include automotive and transportation, aerospace and defence, energy and utilities, robotics and automation, medical device and biomedical engineering, consumer products and advanced manufacturing. Graduates commonly take roles such as design engineer, systems or controls engineer, manufacturing/process engineer, test and validation engineer, project engineer and R&D engineer.

The degree also provides a strong foundation for graduate study in mechanical engineering, aerospace engineering, materials science, biomedical engineering or related fields, as well as professional paths in management, consulting and entrepreneurship. Access to internship and co‑op opportunities in the Cleveland region and corporate partnerships helps students build industry experience and professional networks prior to graduation.

Why study at Case Western Reserve University

Case Western Reserve combines a respected engineering school with a collaborative, research-focused environment. Students benefit from close faculty mentorship, small-group instruction in key technical courses and numerous undergraduate research opportunities within the Department of Mechanical and Aerospace Engineering.

The university’s established links with local hospitals, research institutions and a diverse industrial base in Cleveland enable interdisciplinary projects—particularly in biomedical engineering and materials—and provide strong prospects for internships and employment. Campus resources for innovation and prototyping, including a well-equipped makerspace and project facilities, support hands-on learning and student entrepreneurship. The programme’s emphasis on design, laboratory skills and teamwork equips graduates to transition quickly into technical roles or to pursue advanced study.