Rice University

What you'll study

The PhD programme combines advanced coursework with an extended original research project leading to a dissertation. Core topics commonly covered by students specialising in electrochemical engineering include electrochemical kinetics and thermodynamics, transport phenomena in porous electrodes, electrode/electrolyte interfaces, materials for energy storage and conversion, corrosion science, electrochemical reactor engineering, and modelling of coupled electrochemical–transport processes.

Typical programme structure includes a tailored set of graduate courses in chemical and biomolecular engineering, allied courses in materials science and chemistry, a qualifying or preliminary examination to confirm readiness for research, and a dissertation proposal stage. Research areas available to electrochemical students at Rice include lithium-ion and next-generation batteries, solid-state electrolytes, water electrolysis and hydrogen generation, CO2 electroreduction, fuel cells, electrochemical sensors, and degradation mechanisms and lifetime prediction.

Students spend the majority of their time in laboratory and computational research under the supervision of a faculty advisor. Interdisciplinary collaboration is common — projects frequently draw on the Rice Materials, Chemistry, and Electrical & Computer Engineering groups, and make use of campus facilities such as nanofabrication and advanced materials characterisation labs.

Entry requirements

• Academic background: A bachelor’s degree in chemical engineering, materials science, chemistry, physics or a closely related discipline is typically expected. Applicants with a master’s degree are also welcome. Strong preparation in transport phenomena, thermodynamics and undergraduate laboratory work is an advantage.
• Research experience: Demonstrated research experience — for example through undergraduate honours projects, master’s research or industry R&D — strengthens an application, particularly when it is relevant to electrochemical systems or materials.
• Application materials: A statement of purpose that outlines research interests and fit with Rice faculty, academic transcripts, three letters of recommendation from academic or professional referees, and a CV are required.
• Standardised tests and language: Policies on standardised tests may vary; applicants should consult the department for current guidance. Proof of English language proficiency is required for applicants whose first language is not English, typically by recognised tests or equivalent evidence.
• Admissions criteria: Admission is competitive and evaluated holistically on academic performance, research potential, fit with faculty, and the availability of faculty mentorship and funding.

Career prospects

Graduates with a PhD in Chemical Engineering specialising in electrochemical engineering pursue careers in academia, national laboratories, and industry. Common roles include university faculty and postdoctoral researchers, research scientists and engineers in battery and fuel-cell companies, electrolysis and hydrogen technology firms, energy storage and materials start-ups, and R&D positions within large energy, chemical and manufacturing corporations.

Other career paths include roles in process development and scale-up, corrosion and materials reliability, electrochemical sensor development, consulting, and positions at government or independent research labs working on sustainable energy technologies. The programme also provides a strong foundation for entrepreneurship and technology translation aiming to commercialise electrochemical innovations.

Why study at Rice University

• Rice’s chemical and biomolecular engineering department is known for close faculty–student mentoring and relatively small doctoral cohorts, which supports personalised supervision of ambitious experimental and theoretical projects.
• The university’s strengths in materials science, chemistry and nanotechnology create a rich interdisciplinary environment for electrochemical research. Students regularly collaborate across departments and research centres.
• Rice provides access to advanced shared facilities, including specialised materials characterisation and nanofabrication resources that are essential for electrochemical device fabrication and analysis.
• Located in Houston, Rice benefits from proximity to a major energy and industrial ecosystem as well as the Texas Medical Center, offering partnership and translational opportunities in energy, environmental technologies and biomedical electrochemical applications.
• Doctoral students are typically supported through research assistantships, fellowships or teaching assistantships, enabling full-time focus on research and professional development.