University of Chicago

What you'll study

This PhD programme combines rigorous core coursework with advanced electives and sustained, original research. Early years focus on foundational subjects—advanced transport phenomena, chemical thermodynamics, kinetics and reaction engineering—then move to specialised topics relevant to electrochemical engineering such as electrochemical kinetics, electrode and interface science, ion transport in solids and liquids, battery and fuel cell engineering, corrosion and electrocatalysis.

• Core graduate modules: advanced transport phenomena, thermodynamics & statistical mechanics, reactor design & kinetics, applied mathematics for engineers.
• Electrochemical electives: electrochemical systems and diagnostics, solid-state ionics, electrocatalysis, battery materials and testing, modelling of porous electrodes and membranes.
• Complementary topics: materials characterisation (electron microscopy, X-ray and spectroscopic methods), computational methods (DFT, continuum modelling), and data-driven approaches for materials discovery.
• Research components: rotation projects with faculty, selection of a research advisor, qualifying examinations or other milestone assessments, culminating in an original doctoral dissertation and public defence.
• Seminars and teaching: regular research seminars, group meetings and opportunities to serve as a teaching assistant to develop communication and mentoring skills.

Entry requirements

Applicants are expected to hold a strong undergraduate degree in chemical engineering, chemistry, materials science, physics or a closely related quantitative discipline. A master's degree is not required but may strengthen an application. Typical admission elements include:

• Academic transcript showing strong preparation in mathematics (calculus, linear algebra, differential equations), physical chemistry or thermodynamics, and core engineering science.
• Research experience demonstrated through undergraduate or master’s projects, publications or detailed descriptions of laboratory experience—particularly in electrochemistry, materials synthesis, characterization or modelling.
• Statement of purpose outlining research interests and potential faculty matches; curriculum vitae; and three or more academic references who can assess research potential.
• English language proficiency evidence for applicants whose first language is not English (institutional requirements apply).

Standardised tests (such as the GRE) may be optional or considered on a case-by-case basis depending on current departmental policy; applicants should check the department’s admissions page for the latest guidance. Admission is competitive and emphasises research fit and potential rather than any single numerical cutoff.

Career prospects

Graduates from the programme pursue a range of careers where deep expertise in electrochemical systems is required. Common pathways include:

• Academic research and tenure-track faculty positions, leading independent groups in electrochemistry, materials science and energy conversion.
• Research scientist and engineering roles in national laboratories—particularly in the Chicago area—working on large-scale energy projects, battery and fuel cell development, and materials characterisation.
• Industry positions in energy storage and conversion companies, battery manufacturers, electrochemical sensor firms, and advanced materials enterprises, in roles spanning R&D, prototype development and technical leadership.
• Technology translation, entrepreneurship and startup formation based on new electrode materials, cell architectures or manufacturing methods.
• Technical consulting and policy roles that require rigorous technical assessment of electrochemical technologies and lifecycle considerations.

Why study at University of Chicago

The University of Chicago offers an environment that emphasises rigorous, curiosity-driven research and interdisciplinary collaboration. Students working on electrochemical problems benefit from close ties with nearby national laboratories and research institutes, access to advanced instrumentation and nanofabrication facilities, and collaborations across chemistry, physics, materials science and the Pritzker School of Molecular Engineering.

Faculty in the department pursue cutting-edge research in electrocatalysis, battery science, solid-state ionics and related areas, providing a broad range of potential advisers and collaborative groups. The city and regional research ecosystem—combined with the university’s emphasis on both fundamental science and technology translation—make the programme a strong choice for students aiming to make technical advances with real-world impact.