John Hopkins University

What you'll study

The Materials Engineering curriculum provides a balance of core engineering fundamentals, materials science theory and practical laboratory work. Early coursework builds foundations in mathematics, physics, chemistry and computing, followed by specialised materials subjects. Typical topics and modules include:

• Structure and properties of materials: crystallography, defects, phase diagrams and microstructure–property relationships.
• Thermodynamics and kinetics: phase transformations, diffusion and solidification processes.
• Mechanical behaviour: deformation, fracture mechanics and materials testing methods.
• Materials processing: casting, forming, heat treatment, thin film deposition and additive manufacturing techniques.
• Functional materials: semiconductors, electronic and optical materials, magnetic materials and energy materials.
• Biomaterials: materials for medical devices, tissue engineering and biointerface science, emphasising Johns Hopkins’ strengths in biomedical applications.
• Polymers and composites: synthesis, properties and performance of polymeric materials and reinforced composites.
• Characterisation and instrumentation: microscopy, spectroscopy, X-ray diffraction and mechanical testing laboratories.
• Computational materials science: modelling of material behaviour, materials informatics and data-driven design approaches.
• Capstone and research: an undergraduate design or research project in collaboration with faculty, national labs or industry partners.

Students are encouraged to take electives across biomedical engineering, mechanical engineering, chemistry and applied physics, and to participate in undergraduate research through faculty labs or the university’s research centres. Hands-on laboratory courses and team design projects are integral to the programme.

Entry requirements

Admission to the programme is through Johns Hopkins University’s undergraduate admissions process. Successful applicants typically demonstrate strong academic preparation in mathematics (including calculus), physics and chemistry, together with a record of high academic achievement in secondary school. Typical evidence of readiness includes advanced coursework such as honours or Advanced Placement (AP) classes where available, strong letters of recommendation, and a personal statement that conveys interest in engineering and materials science.

Admission is competitive and considers the whole application; standardised test requirements may vary and applicants should consult the university’s admissions office for current testing policy. International applicants are usually required to demonstrate English language proficiency through recognised tests or other qualifying evidence. Prior laboratory or research experience and participation in STEM extracurricular activities are viewed favourably.

Career prospects

Graduates with a Bachelor’s in Materials Engineering are prepared for a wide range of technical and professional roles. Common career paths include:

• Materials engineer or metallurgist in aerospace, automotive, defence and advanced manufacturing industries.
• Process and quality engineer in semiconductor and electronics manufacturing.
• Research and development roles in energy, batteries and renewable materials.
• Biomedical device and biomaterials development, working with medical device companies or clinical research teams.
• Materials characterisation and failure analysis in consulting or testing laboratories.
• Further study leading to master’s or doctoral research degrees in materials science, engineering or related disciplines, or professional degrees in medicine and business.

Students benefit from Johns Hopkins’ strong industry links, research centres and career services for internships and co-op placements, which help transition into roles in industry, government laboratories or academia.

Why study at Johns Hopkins University

Johns Hopkins is a research-intensive university with a longstanding reputation for strength in both engineering and the biomedical sciences. Materials engineering students benefit from interdisciplinary collaboration across schools and centres, including close connections to biomedical engineering, chemistry and applied physics. The Whiting School of Engineering emphasises undergraduate research opportunities, allowing students to work alongside faculty on cutting-edge projects.

Facilities and resources include modern materials characterisation and fabrication laboratories, access to shared microscopy and spectroscopy instrumentation, and partnerships with local hospitals, government research labs and industry. The programme’s location also provides opportunities for internships and professional networking in the Mid-Atlantic region. Overall, the environment is well suited to students who want rigorous technical training, hands-on experimental experience and pathways into research-driven careers.