Massachusetts Institute of Technology

What you'll study

The programme builds on core chemical‑engineering principles while emphasising fundamentals and applications of electrochemical systems. Typical topics include electrochemical thermodynamics and kinetics, transport phenomena in porous electrodes, electrode/electrolyte materials, modelling and simulation of electrochemical devices, reaction engineering for electrochemical reactors, and degradation and lifetime analysis.

Coursework is combined with hands‑on laboratory work and research. Students commonly take advanced subjects such as electrochemical methods, materials for energy conversion and storage, multiscale transport and reaction modelling, solid‑state ionics, and methods in materials characterisation. Coursework is complemented by a substantial research thesis or individual project carried out in a faculty laboratory or in collaboration with an industry partner.

• Electrochemical thermodynamics and kinetics
• Transport phenomena in electrochemical systems
• Materials for batteries, fuel cells and electrolyzers
• Modelling and simulation of electrochemical devices
• Advanced experimental techniques and characterization
• System integration, balance‑of‑plant and durability testing

Entry requirements

Applicants are normally expected to hold a bachelor's degree in chemical engineering, chemical sciences, materials science, mechanical engineering, electrical engineering or a closely related quantitative discipline. A solid grounding in mathematics, physical chemistry, fluid mechanics and transport phenomena is essential. Admissions committees look for a strong academic record, demonstrated research potential or relevant engineering experience, and technical references.

Required application components typically include academic transcripts, a statement of purpose outlining research interests, at least two letters of recommendation, and a curriculum vitae. International applicants should demonstrate sufficient English proficiency where required. Specific prerequisites or preparatory coursework may be recommended for applicants whose prior training does not include core chemical‑engineering fundamentals.

Career prospects

Graduates are prepared for a range of technical and research roles across industry, national laboratories and academia. Common career paths include:

• R&D engineer or scientist in battery, fuel cell and electrolyzer companies
• Materials and process development roles in energy‑storage and electrochemical manufacturing
• Corrosion engineering and electrochemical surface treatment in industrial sectors
• Systems and modelling engineer for electric‑vehicle powertrains and grid storage
• Technical roles in advanced materials, semiconductors and clean‑energy startups
• Continuation to doctoral research and academic careers

Why study at Massachusetts Institute of Technology

MIT offers an interdisciplinary research environment with strong links between chemical engineering, materials science, electrical engineering and energy initiatives. Students benefit from access to specialised laboratories, cutting‑edge characterization facilities and collaborative research groups focused on electrochemical energy and materials.

The institute's proximity to vibrant technology and start‑up ecosystems, structured support for entrepreneurship, and established industry partnerships provide opportunities for internships, sponsored projects and technology translation. Faculty mentorship, cross‑disciplinary centres and a community of researchers working on sustainable energy make MIT a compelling place to develop expertise in electrochemical engineering.