University of Virginia

What you'll study

The programme combines advanced coursework, research rotations, and a sustained independent research project leading to a doctoral dissertation. Early-stage students typically complete core graduate courses in transport phenomena, thermodynamics, reaction kinetics, and applied electrochemistry, followed by electives that reflect electrochemical specialisms.

• Core topics: advanced transport processes, non-equilibrium thermodynamics, reaction kinetics and catalysis, electrochemical thermodynamics and kinetics, porous electrode theory.
• Electrochemical specialisms: batteries and battery materials, solid-state and liquid electrolytes, fuel cells and electrolyzers, electrocatalysis, corrosion and mitigation, electrode design and microstructure, solid–electrolyte interphase (SEI) phenomena.
• Methods and modelling: multiscale modelling of electrochemical systems, continuum and porous-electrode models, atomistic and mesoscale simulation techniques, data-driven methods for materials discovery.
• Characterisation and techniques: electrochemical methods (potentiostatic/galvanostatic testing, impedance spectroscopy), in situ/operando characterisation, electron microscopy, spectroscopy, and materials synthesis methods.
• Professional development: research seminars, teaching or mentoring opportunities, grant-writing and scientific communication training.

Programme structure commonly includes a period of advanced coursework and rotations during the first one to two years, a qualifying or preliminary examination to transition to candidacy, and focused dissertation research under the supervision of a chemical engineering faculty member. Interdisciplinary collaboration with materials science, physics, mechanical engineering and chemistry groups is encouraged and common.

Entry requirements

• Normally a Bachelor’s degree with first-class or upper-second honours in chemical engineering, chemistry, materials science, physics or a closely related discipline; a relevant Master’s degree can strengthen an application.
• Strong foundation in mathematics, thermodynamics, transport phenomena and physical chemistry or electrochemistry is expected.
• Evidence of research potential, typically demonstrated through a research statement, publications or project reports, and letters of academic reference from supervisors or professors.
• CV/resumé detailing academic background and research experience.
• International applicants must meet the University’s English language requirements; standardised test requirements (such as the GRE) are considered according to department policy and may be optional.
• Applicants should identify potential faculty supervisors in the application and outline proposed research interests that align with faculty expertise.

Career prospects

Graduates with a PhD in Chemical Engineering focused on Electrochemical Engineering pursue diverse career paths. Many enter academic research and teaching positions, undertaking postdoctoral work before securing faculty roles. A large proportion move into research and development roles in industry, including battery and energy storage companies, fuel-cell and electrolyser manufacturers, chemical and process engineering firms, and materials and coatings industries focusing on corrosion and protective technologies.

• Industry research and development: advanced materials, energy storage, electrochemical devices, process scale-up.
• National laboratories and research institutes: large-scale experimental campaigns, coupled modelling and experimentation.
• Start-ups and entrepreneurship: technology translation, intellectual property and product development in clean energy and electrochemical technologies.
• Consulting, policy and regulatory roles related to energy systems, sustainability and materials reliability.

Why study at University of Virginia

The University of Virginia’s School of Engineering and Applied Science offers a doctoral environment with strong emphasis on interdisciplinary research and close faculty mentorship. Chemical engineering doctoral students benefit from collaborative links with neighbouring departments and access to shared materials and characterization facilities, allowing electrochemical projects to integrate synthesis, advanced characterisation and modelling.

Graduate students are typically supported through research assistantships, teaching opportunities and grants, enabling focus on high-impact research. The department’s engagement with regional and national industry partners and research networks provides pathways for translational research, internships and postdoctoral opportunities. Studying in Charlottesville also offers a compact research community with opportunities for cross-disciplinary collaboration and professional development.