University of Massachusetts Amherst

What you'll study

The doctoral programme combines advanced coursework, original research and professional development. Early coursework typically covers advanced transport phenomena, electrochemical thermodynamics and kinetics, materials for energy conversion and storage, and mathematical methods for modelling reactive transport. Students also study specialised topics such as solid-state ionics, battery chemistries, fuel cell engineering, electrochemical synthesis, corrosion science, and operando/in situ characterisation techniques.

Programme structure includes:

• Core and elective courses to build depth in electrochemical theory, materials science and process engineering.
• Research rotations or early lab placements to identify a dissertation advisor and research group.
• Qualifying examinations that assess mastery of fundamentals and readiness to pursue independent research.
• Original doctoral research leading to a written dissertation and public defence; research typically involves experimental work (electrochemical cells, battery testbeds, spectroelectrochemistry, microscopy) and/or computational modelling (multi-physics simulation, atomistic modelling, machine learning for materials).
• Colloquia and teaching responsibilities, including participation in seminars and opportunities to teach undergraduate/graduate courses.

Typical research areas within the programme include battery materials and architectures, electrolyser and fuel cell development, electrocatalysis, corrosion mitigation, electrochemical reactor design and diagnostics, and multi-scale modelling of electrochemical systems.

Entry requirements

Applicants should normally hold a bachelor’s or master’s degree in chemical engineering or a closely related discipline (materials science, chemistry, mechanical engineering, physics) with strong preparation in mathematics, transport phenomena, thermodynamics and physical chemistry. Successful applicants generally demonstrate:

• Strong academic record in relevant undergraduate and/or postgraduate coursework.
• Research experience in experimental or computational electrochemistry, materials synthesis, or related areas is highly desirable.
• Letters of recommendation from academic or professional referees who can speak to research potential.
• Statement of purpose outlining research interests and fit with faculty expertise.
• Evidence of quantitative and laboratory skills, such as project reports, publications or presentations.

International applicants must demonstrate English language proficiency where required by the university. The department considers the overall application package; standardised test requirements (if any) are set by the graduate school and may change, so applicants should consult the department for current policy.

Career prospects

Graduates are prepared for research-focused careers across academia, national laboratories and industry. Common career paths include:

• Academic research and teaching as postdoctoral researchers and tenure-track faculty working on electrochemical systems and materials.
• Industry R&D in battery and energy storage companies, fuel cell and electrolyser manufacturers, advanced materials firms and chemical process companies.
• National and government laboratories engaged in large-scale energy technologies, materials characterisation and technology validation.
• Technical leadership and engineering roles in product development, scale-up, testing and quality control for electrochemical products and processes.
• Start-ups and entrepreneurship commercialising new electrochemical materials, diagnostics or manufacturing technologies.
• Consulting and policy roles focused on energy systems, sustainability and industrial decarbonisation.

Why study at University of Massachusetts Amherst

The University of Massachusetts Amherst offers an environment that supports interdisciplinary electrochemical research within a well-established Chemical Engineering department. Students benefit from collaboration opportunities with neighbouring materials and polymer science groups, campus research centres focused on energy and sustainability, and access to shared facilities for materials synthesis, microfabrication and advanced characterisation.

Graduate students are typically supported through research and teaching assistantships that provide mentoring, laboratory resources and professional development. The campus location fosters connections to regional industry and national research networks, while a diverse graduate community and seminar series provide a broad perspective on contemporary electrochemical challenges. The department emphasises hands-on research training, rigorous quantitative preparation and development of communication and leadership skills valuable for academic and industrial careers.