University of Iowa

What you'll study

The programme combines advanced coursework, original research and professional training. Core topics typically include electrochemical thermodynamics and kinetics, transport phenomena (mass, momentum and heat transfer), advanced reaction engineering, materials for electrochemical devices (electrodes, membranes, catalysts), computational modelling of electrochemical systems, and experimental methods for electrochemical characterisation.

• Advanced coursework: subjects such as transport phenomena at the nanoscale, physical electrochemistry, porous electrode theory, and multiphase reactor design.
• Laboratory skills: techniques in electrochemical impedance spectroscopy, cyclic voltammetry, rotating-disk electrode methods, materials synthesis and characterization (XRD, SEM, TEM, surface analysis), and cell-scale testing for batteries and fuel cells.
• Modelling and simulation: continuum and pore-scale models, finite-element methods for coupled transport and electrochemical reaction, and data-driven approaches where appropriate.
• Research training: an extended, original dissertation project under the supervision of a faculty advisor, culminating in a public defence. Projects often address problems such as improving energy-density and lifetime of storage devices, reducing overpotentials in electrolyzers, corrosion mitigation, or scalable electrode architectures.
• Professional development: seminar series, teaching or mentoring opportunities, grant-writing and communication workshops, and conference participation to build a publication record.

Entry requirements

Applicants are normally expected to hold a relevant master's degree or a strong bachelor’s degree in chemical engineering, chemical and biochemical engineering, materials science, chemistry, physics or a closely related engineering discipline. Essential qualities include strong quantitative skills, research experience, and a record of academic achievement.

• Academic transcripts showing strong performance in core subjects such as transport phenomena, thermodynamics, reaction engineering and physical chemistry.
• Research experience: prior laboratory or project work, publications or a master's thesis are highly desirable and strengthen an application.
• References: at least two academic or professional references who can comment on research potential and readiness for doctoral study.
• English language proficiency: evidence required from international applicants in line with university policies (such as recognised language tests or prior degree taught in English).
• Additional materials: a statement of research interests outlining fit with faculty expertise, and a CV. Standardised tests are considered in the context of the overall application according to current departmental policies.

Career prospects

Graduates of this PhD programme move into a wide range of careers in academia, industry and the public sector where deep electrochemical expertise is needed. The degree prepares students to lead research and development, design and scale-up technical solutions, or pursue academic careers.

• Academia: faculty positions or postdoctoral research in electrochemistry, materials science, chemical engineering and related fields.
• Industry: R&D roles in battery and energy storage companies, fuel cell and electrolyser manufacturers, corrosion and coatings firms, semiconductor and electronic materials industries, and chemical process companies.
• National and private research labs: positions in government labs and corporate research centres focused on energy conversion, sustainable chemical production and advanced materials.
• Consultancy and entrepreneurship: technical consulting, intellectual property and start-up ventures commercialising electrochemical technologies.

Why study at University of Iowa

The University of Iowa offers a research-intensive environment in which PhD students receive close mentoring from faculty in the Department of Chemical and Biochemical Engineering and collaborate across departments such as chemistry, materials science and physics. The department supports experimental and computational electrochemical research with access to shared instrumentation and core facilities for materials characterisation and device testing.

• Interdisciplinary opportunities: collaboration with neighbouring disciplines and centres enables projects that span materials synthesis, modelling and systems-level testing.
• Research training and support: emphasis on developing independent researchers with opportunities for teaching, grant-writing experience and conference travel support.
• Facilities and infrastructure: access to university core facilities for microscopy, spectroscopy and fabrication, plus laboratory space for electrochemical cell testing and materials processing.

Overall, the programme combines rigorous coursework, hands-on experimental and modelling training, and sustained dissertation research to prepare graduates for leadership in electrochemical science and engineering.