North Carolina State University

What you'll study

The PhD programme combines advanced coursework with sustained, original research under the supervision of faculty in the Department of Chemical and Biomolecular Engineering. Early in the programme students complete a tailored set of graduate courses to build depth in core areas and to support their research plans. Typical course topics include:

• Advanced Transport Phenomena and Multiphase Flow
• Electrochemical Engineering and Reactor Design
• Electrochemical Kinetics and Thermodynamics
• Materials for Energy Storage (battery and supercapacitor materials)
• Fuel Cells and Electrochemical Conversion Systems
• Corrosion Science and Protective Coatings
• Physical and Electrochemical Characterisation Techniques (electrochemical impedance, cyclic voltammetry, spectroscopy)
• Computational Methods: modelling of electrochemical systems and multi-physics simulations

After coursework, students undertake qualifying or candidacy examinations and then focus on an original research project that leads to a written dissertation and public defence. Research is typically conducted in university laboratories and often crosses into interdisciplinary centres and core facilities, allowing access to advanced microscopy, spectroscopy and fabrication tools. PhD students are expected to participate in seminars, present at conferences and contribute to publications in peer-reviewed journals.

Entry requirements

Applicants should hold a bachelor’s degree in chemical engineering, engineering physics, materials science, chemistry or a closely related field. A relevant master’s degree is often favourable but applicants with a strong bachelor’s record and substantial research experience may be considered. Expected qualifications and application materials typically include:

• Strong academic transcripts showing a solid foundation in thermodynamics, transport phenomena, kinetics and mathematics
• Research experience (undergraduate or graduate research projects, internships) with evidence of independence and technical competence
• A statement of purpose describing research interests and fit with faculty expertise in electrochemical engineering
• Letters of recommendation from academic or professional referees who can speak to research potential
• For applicants whose first language is not English, proof of English proficiency via an accepted test or exemption per university policy

Admissions committees evaluate fit with faculty research areas and available supervision. Funding offers and assistantships are competitive; applicants should review faculty profiles and contact potential supervisors when appropriate.

Career prospects

Graduates of the PhD programme enter a wide range of careers that leverage deep expertise in electrochemical systems and materials. Common pathways include:

• Research and development roles in battery, fuel cell and energy storage companies
• Process and materials development in chemical, petrochemical and speciality materials industries
• Technical leadership or scientist positions in national laboratories and government research organisations
• Academic careers as university faculty carrying out independent research and teaching
• Start-up and entrepreneurial activities developing electrochemical devices, sensors or clean energy technologies
• Consultancy and policy roles relating to energy systems, sustainability and technology deployment

PhD graduates are typically well positioned for roles that require advanced experimental skills, modelling ability and the capacity to lead multidisciplinary teams.

Why study at North Carolina State University

North Carolina State University hosts an established Chemical and Biomolecular Engineering department with faculty active in electrochemical research, energy materials and process engineering. The university’s location in the Research Triangle region provides strong links to national laboratories, industry partners and start-up ecosystems working on energy storage, advanced manufacturing and materials. Students benefit from access to core facilities and instrumentation for materials characterisation and device fabrication, collaborative centres that bring together chemists, materials scientists and engineers, and a culture that supports translational research.

Doctoral candidates also gain teaching experience through graduate teaching assistantships and are supported by faculty mentorship, seminars and professional development resources designed to prepare them for research careers in academia, industry and beyond.