John Hopkins University

What you'll study

The Master’s in Engineering at Johns Hopkins is offered through the Whiting School of Engineering and combines core engineering fundamentals with discipline-specific specialisation. Students typically follow one of several pathways—coursework-focused, project/capstone, or research/thesis—depending on department options and individual goals.

• Core and foundation modules: advanced mathematics for engineers, systems engineering principles, numerical methods, optimisation and modelling techniques, and engineering ethics and professional practice.
• Specialist modules: options vary by department and commonly include courses such as biomedical engineering and medical imaging, control systems and robotics, wireless communications and signal processing, advanced materials and nanotechnology, structural analysis and geotechnical engineering, and environmental and energy systems.
• Laboratory and project work: many programmes require hands-on laboratory modules, team-based design projects or a capstone project that emphasises applied problem solving in collaboration with faculty or industry partners.
• Research and thesis: students pursuing the research track work closely with a faculty supervisor on an independent research project, producing a thesis that may contribute to peer-reviewed publications or ongoing laboratory programmes.
• Electives and interdisciplinary options: students can often take electives across departments—computer science, biomedical engineering, materials science, public health or management—to tailor their degree to specific career goals.

Entry requirements

Typical entry requires a good undergraduate degree in engineering, a closely related scientific discipline, or substantial quantitative coursework. Departments look for applicants with a strong record in mathematics, physics and core engineering subjects.

• Official academic transcripts detailing prior degrees and courses taken.
• Letters of recommendation (usually two to three) from academic or professional referees familiar with your technical ability and potential for graduate study.
• A statement of purpose outlining academic interests, intended specialisation, and career objectives.
• A current CV or résumé documenting relevant coursework, projects, internships or employment.
• Proof of English language proficiency for applicants whose first language is not English (standard tests such as TOEFL or IELTS are commonly accepted).
• Some departments may request a portfolio, additional writing samples, or that applicants identify a potential faculty advisor—particularly for research-focused tracks.

Career prospects

Graduates from Johns Hopkins’ Master’s in Engineering move into a broad range of technical and leadership roles across industry, government and academia. The programme prepares students for immediate professional practice as well as further doctoral study.

• Industry roles: design and development engineer, systems engineer, process engineer, controls and automation engineer, materials engineer and product developer.
• High-growth sectors: biomedical devices and medical imaging, robotics and autonomous systems, energy and environmental engineering, aerospace and defence, telecommunications and semiconductors, and advanced manufacturing.
• Data- and software-focused careers: machine learning engineer, data scientist, software engineer for engineering applications.
• Research and academic pathways: continuation to PhD programmes, research scientist positions in university or corporate labs.
• Professional advancement: technical leadership, project management, and roles that bridge engineering with policy or business strategy.

Why study at John Hopkins University

Johns Hopkins combines a strong research culture with interdisciplinary collaboration across engineering, medicine, public health and the natural sciences. Students benefit from access to world-class laboratories, specialised research centres and translational facilities that link fundamental research to real-world applications.

• Close ties to medical and public health institutions enable unique opportunities in biomedical and translational engineering projects.
• Collaborative, interdisciplinary research centres provide exposure to large-scale, multi‑disciplinary problems and industry-sponsored projects.
• Opportunities for hands-on learning through lab rotations, design studios, internships and capstone projects with industry or university partners.
• Strong career and professional development services, including support for internships, employer networking and entrepreneurship initiatives.