John Hopkins University

What you'll study

The mechanical engineering curriculum builds a strong foundation in mathematics, physics and computing before advancing to core engineering topics and application-specific electives. Early years emphasise calculus, differential equations, classical mechanics, and introductory programming. Core mechanical engineering subjects typically include statics and dynamics, mechanics of materials, thermodynamics, fluid mechanics, heat transfer, materials science, systems and control, and engineering design.

• Laboratory courses and projects that reinforce experimental methods, data analysis and instrumentation.
• Computer-aided design (CAD), computational methods and numerical simulation for modeling structures, fluids and thermal systems.
• Capstone team design project emphasising systems engineering, prototyping and professional communication.
• Electives and pathways allowing specialisation in areas such as robotics and controls, energy systems, aerospace structures, manufacturing and biomechanics.
• Opportunities for undergraduate research in faculty laboratories and through centres across the Whiting School of Engineering, including cross-disciplinary projects with biomedical engineering, materials science and applied physics.

Entry requirements

Admissions are competitive and seek candidates with a strong secondary‑school record in mathematics and the physical sciences. Successful applicants typically have completed advanced coursework such as calculus and physics, and demonstrate quantitative problem‑solving ability.

• Academic transcripts showing strong performance in mathematics (calculus) and physics; chemistry is highly recommended.
• Personal statement or essays that describe motivation for engineering, relevant projects or experiences, and fit with the programme.
• Letters of recommendation from teachers or mentors who can attest to academic preparation and potential.
• Extracurricular experience such as robotics, engineering clubs, internships, research or independent projects is advantageous.
• International applicants should provide evidence of equivalent secondary qualifications; standardised tests and English language proof requirements vary and should be checked with the university.

Career prospects

Graduates are prepared for a broad range of technical and leadership roles. Typical career destinations include design and analysis roles in aerospace and automotive industries, energy and power systems, robotics and automation, manufacturing and supply chain engineering, and product development for medical devices and materials.

• Many alumni move into research and development, systems engineering, or consulting roles with technology firms and engineering consultancies.
• Some graduates pursue graduate study (master’s or PhD) in mechanical engineering, materials science, biomedical engineering or related disciplines.
• Others apply engineering training to entrepreneurship and startups, particularly in areas such as medtech, clean energy and advanced manufacturing.

Why study at Johns Hopkins University

Johns Hopkins offers a strong research environment and close ties between undergraduate education and leading laboratory and clinical centres. Mechanical engineering students benefit from access to interdisciplinary research groups, state‑of‑the‑art facilities, and opportunities to collaborate with faculty across engineering, applied physics and medicine.

• Hands‑on learning through laboratory courses, design studios and a team capstone sequence that emphasise practical engineering skills.
• Extensive undergraduate research opportunities and internships, including connections with university research centres and affiliated labs.
• Interdisciplinary pathways that allow students to combine mechanical engineering with areas such as biomedical engineering, materials, data science and entrepreneurship.
• Strong career support and alumni networks that help students secure internships, co‑op placements and post‑graduate employment.