Clarkson University

What you'll study

The programme combines advanced coursework, directed research and a sustained original dissertation in electrochemical engineering topics. Typical taught modules and subject areas include:

• Electrochemical kinetics and thermodynamics: electrode reactions, Butler–Volmer kinetics, overpotential analysis and electrocatalysis.
• Transport phenomena in electrochemical systems: coupled mass, charge and heat transport in porous electrodes, concentration polarization and membrane transport.
• Materials for energy storage and conversion: battery electrode materials, solid‑state electrolytes, fuel cell catalysts and corrosion‑resistant alloys.
• Electrochemical engineering and device design: cell and stack design, scale-up considerations, flow batteries and fuel cell systems engineering.
• Advanced materials characterisation: electrochemical impedance spectroscopy, cyclic voltammetry, microscopy and spectroscopy techniques applied to electrodes and interfaces.
• Computational methods and modelling: multi‑physics simulation of electrochemical devices, continuum modelling of porous electrodes and data‑driven approaches.
• Research skills and professional development: research ethics, technical communication, grant writing and teaching experience where appropriate.

Structure typically includes initial coursework to establish breadth and depth, passing a qualifying or candidacy examination, and then concentrated dissertation research under supervision of a faculty advisor. Students work closely with research groups on experimental and/or computational projects and are expected to produce peer‑reviewed publications as part of their doctoral training.

Entry requirements

Applicants are normally expected to hold a relevant master's degree (MSc, MEng or equivalent) or a strong bachelor’s degree with significant research experience in chemical engineering, materials science, chemistry, physics or a closely related field. Typical supporting elements include:

• Academic transcripts: demonstration of strong performance in core undergraduate and graduate coursework (thermodynamics, transport phenomena, reaction engineering or equivalent).
• Research experience: prior laboratory or modelling projects, a master’s thesis or publications strengthen an application.
• Research proposal / statement of purpose: a concise description of research interests in electrochemical engineering and alignment with faculty expertise.
• References: two or three academic or professional letters that can comment on research potential.
• English language proficiency: required for applicants whose first language is not English (acceptable exams and minimum scores are set by the university).

Admission may also consider GRE scores where provided and the availability of a suitable faculty supervisor and research funding. Candidates with complementary backgrounds but strong quantitative and laboratory skills may be admitted subject to completing prerequisite coursework.

Career prospects

Graduates of the PhD in Chemical Engineering with an electrochemical focus are well placed for a range of research and leadership roles, including:

• Academic positions (postdoctoral researcher, tenure‑track faculty) pursuing fundamental and applied electrochemistry.
• Research and development roles in battery, fuel cell and energy storage companies developing electrodes, electrolytes and cell designs.
• Positions in national laboratories and government research centres working on large‑scale energy systems, materials characterisation and sustainability projects.
• Engineering and technical leadership in industries that use electrochemical processes—corrosion mitigation, electroplating, sensors and electrochemical manufacturing.
• Technology translation, consulting and start‑up leadership where deep technical expertise in electrochemical systems is required.

The programme’s emphasis on hands‑on experimentation, device testing and modelling prepares graduates to tackle industrial scale‑up challenges as well as fundamental scientific questions.

Why study at Clarkson University

Clarkson University offers an applied, collaborative research environment with strengths in materials, energy systems and engineering science. PhD students in electrochemical engineering benefit from access to specialised electrochemistry laboratories and battery testing facilities, advanced materials characterisation equipment and interdisciplinary centres focused on energy and sustainability.

The university emphasises close faculty mentoring, opportunities to work on funded projects with industrial and government partners, and professional development through teaching, conference attendance and publication. Located within a research‑intensive engineering school, the programme is designed to provide the technical depth, hands‑on training and industry connections needed to launch a career at the forefront of electrochemical technology.