Syracuse University

What you'll study

The PhD curriculum combines advanced core courses, elective modules and intensive original research in electrochemical engineering. Early coursework typically covers advanced transport phenomena, chemical thermodynamics, reaction engineering, electrochemical principles, and advanced materials for energy applications. Students also take classes in numerical methods, multiscale modelling and experimental methods for electrochemical systems, along with professional development seminars and a graduate research seminar series.

After completing required coursework, students pass a qualifying or candidacy assessment and then concentrate on dissertation research under a faculty advisor. Research topics commonly pursued by students in electrochemical engineering include battery and supercapacitor materials, fuel cells, electrolyzers, electrode kinetics and mass transport, corrosion and protection, electrochemical synthesis and electrocatalysis, and diagnostic/characterisation techniques for electrodes and electrolytes.

• Core topics: advanced transport phenomena, reaction kinetics, chemical thermodynamics, electrochemical fundamentals
• Electives: materials for energy, solid-state ionics, corrosion science, modelling of electrochemical systems, advanced characterisation techniques
• Research components: literature review, experimental design and execution, computational modelling, data analysis, peer-reviewed publications and dissertation
• Professional development: teaching experience, grant-writing, seminars and conference presentations

Entry requirements

Applicants should hold a relevant bachelor’s or master’s degree in chemical engineering, materials science, chemistry, mechanical engineering or a closely related discipline. A strong foundation in mathematics, physical chemistry, transport phenomena and thermodynamics is expected. Typical application materials include an academic transcript, a statement of purpose outlining research interests (especially in electrochemical topics), a curriculum vitae, and three letters of academic or professional recommendation.

International applicants must demonstrate English language proficiency according to university policy. Candidates with research experience, publications or relevant industry experience in electrochemistry, energy materials or related experimental/computational work will be particularly competitive. Admission decisions also consider fit with faculty research programmes and the availability of an appropriate research advisor.

Career prospects

Graduates of the programme pursue diverse careers in academia, national laboratories, industry and government. Common career paths include postdoctoral research and faculty positions, R&D roles in battery, fuel cell and electrolysis companies, positions in corrosion and materials performance consulting, and engineering roles in energy storage, chemical manufacturing and process industries.

Other opportunities include technology development and scale-up, analytics and modelling roles for process optimisation, roles in governmental or international research organisations, and entrepreneurship in cleantech and advanced materials start-ups. The programme’s combination of rigorous coursework and hands-on research prepares graduates for leadership in both fundamental research and applied engineering.

Why study at Syracuse University

Syracuse University offers a research-focused engineering environment with access to interdisciplinary collaborators across materials science, chemistry and physics. Graduate students benefit from mentorship by faculty engaged in contemporary electrochemical research, state-of-the-art laboratories and shared core facilities for materials characterisation and electrochemical testing.

The university supports graduate training with teaching and research assistantships, professional development resources and opportunities to present work at national and international conferences. Proximity to regional industry and national research networks fosters collaborations that help transition research from the laboratory to practical applications in energy and materials technologies.