Massachusetts Institute of Technology

What you'll study

The programme combines advanced coursework, research rotations and an extended original research project leading to a doctoral dissertation. Early years emphasise rigorous training in electrochemical fundamentals, transport and reaction engineering, materials science and computational methods, followed by deep experimental or theoretical study in a chosen specialty.

• Core topics: electrochemical thermodynamics and kinetics; mass, charge and heat transport in porous and multiphase systems; electrode and electrolyte materials; solid-state ionics; interfacial science and surface electrochemistry.
• Advanced modules: electrochemical reactor and cell design; battery and fuel-cell systems engineering; catalysis for electrochemical conversion (CO2 reduction, hydrogen evolution/oxidation); corrosion and degradation mechanisms; operando characterisation techniques (spectroscopy, microscopy, scattering); multi-scale modelling and machine learning for electrochemical systems.
• Quantitative skills: advanced transport phenomena, statistical and molecular simulation methods, numerical methods for partial differential equations, data analysis and uncertainty quantification.
• Research training: research rotations with faculty groups, a written and oral qualifying examination or thesis proposal, regular thesis research under supervision and peer seminars; teaching and mentoring experience is also typically available.

Entry requirements

Applicants are normally expected to hold a strong bachelor’s degree in chemical engineering, materials science, chemistry, mechanical engineering, physics or a closely related discipline. Many successful applicants also hold a relevant master’s degree and demonstrable research experience in electrochemistry, materials synthesis, characterization or modelling.

• Evidence of strong quantitative preparation: undergraduate coursework in transport phenomena, thermodynamics, physical chemistry and differential equations, or equivalent experience.
• Research experience: laboratory or computational projects, preferably with outputs such as reports, conference presentations or publications, to demonstrate preparation for independent research.
• Supporting documents: academic transcripts, a statement of research interests, curriculum vitae, and several academic references commenting on research potential and preparation.
• English-language proficiency where applicable: standardised test requirements are set by the Institute and may be waived or varied depending on prior education.
• Admission is competitive and selection emphasises research fit with faculty expertise and the applicant’s potential for independent scholarship.

Career prospects

Graduates of the PhD in Chemical Engineering with a focus on electrochemical engineering pursue careers across academia, national laboratories and industry. Common career paths include:

• Academic research and teaching positions, including postdoctoral fellowships and tenure-track roles in chemical engineering, materials science and related departments.
• Industry R&D roles in battery and energy-storage companies, fuel-cell and electrolyser manufacturers, chemical process companies, and firms developing electrochemical manufacturing and carbon-capture technologies.
• Positions in national and government laboratories focused on large-scale energy projects, electrochemical materials development and technology development programmes.
• Technical leadership in start-ups and scale-up engineering for commercialisation of electrochemical technologies; roles in product development, IP strategy and consulting.
• Cross-disciplinary opportunities in modelling, data science and device integration for energy systems, and policy or advisory roles where deep technical expertise is required.

Why study at Massachusetts Institute of Technology

MIT offers an environment that is exceptionally conducive to high-impact electrochemical research through close collaboration across departments and interdisciplinary centres. Students benefit from connections with the MIT Energy Initiative and the Institute’s materials research and nanofabrication facilities, extensive characterisation infrastructure and high-performance computing resources.

The department’s faculty include internationally recognised researchers working on electrochemical energy conversion, storage, materials for electrodes and electrolytes, and multi-scale modelling; students can engage in collaborative projects spanning chemistry, materials science, mechanical engineering and systems engineering. The Institute’s strong links to industry, national laboratories and a vibrant innovation ecosystem provide access to applied problems, internships and pathways for technology translation.

Doctoral training at MIT emphasises rigorous fundamentals, hands-on experimental and computational expertise, and the communication and leadership skills needed to translate research into real-world impact.