Colorado State University

What you'll study

This master's programme combines advanced chemical engineering core topics with specialised coursework and research in electrochemical systems. Students study the fundamentals of electrochemical kinetics, transport phenomena in charged media, and electrode and electrolyte materials, alongside applied subjects such as batteries, fuel cells, electrolysis, corrosion engineering and electrochemical reactor design.

• Core concepts: advanced transport phenomena, reaction engineering, thermodynamics and process control as they apply to electrochemical systems.
• Electrochemical specialisms: electrochemical kinetics and mechanisms, electrode/electrolyte materials science, battery chemistry and design, fuel cell technology, electroplating and corrosion mitigation.
• Modelling and characterisation: continuum and pore-scale modelling of ion and charge transport, impedance and voltammetry analysis, materials characterisation techniques (e.g. electron microscopy, X-ray methods, spectroscopy) and electrochemical testing protocols.
• Lab work and research: hands-on laboratory courses and a research thesis or project that develops experimental, modelling or prototype skills in electrochemical devices or processes.
• Programme structure: options typically include a thesis-based MS focused on original research and a non-thesis coursework option with a design or project requirement. Degree completion normally requires a mix of advanced technical electives, required core credits and research/practical credits.

Entry requirements

Applicants should hold a bachelor's degree in chemical engineering, materials science, mechanical engineering, chemistry, physics or a closely related field from an accredited institution. A strong foundation in undergraduate thermodynamics, transport phenomena, reaction engineering and calculus is expected.

• Academic record: evidence of solid academic performance in relevant engineering and science courses.
• Supporting documents: statements of purpose outlining research or career goals, a current CV, and letters of recommendation from academic or professional referees.
• Standardised tests: some applicants may choose to submit GRE scores where required or advantageous; consult the programme for current policy.
• English language: for applicants whose first language is not English, acceptable proof of English proficiency is required.
• Preparatory requirements: applicants without a conventional engineering background may be admitted conditionally but could be asked to complete bridge or prerequisite courses before full progression in the programme.

Career prospects

Graduates are prepared for technical and research roles across sectors that use electrochemical technologies. Career paths include positions in battery and energy storage development, fuel cell and hydrogen technologies, corrosion engineering and asset protection, electrochemical process and materials development, and advanced manufacturing.

• Research and development engineer in battery companies and clean-energy firms
• Process or design engineer for electrochemical reactors and industrial electrosynthesis
• Materials scientist working on electrodes, solid electrolytes and coatings
• Corrosion engineer in oil & gas, utilities, infrastructure and transportation sectors
• Positions in national laboratories, government research programmes and regulatory agencies
• Continuation to doctoral study in electrochemical engineering, materials science or related disciplines

Why study at Colorado State University

Colorado State University offers a chemical engineering programme with strong experimental and computational capabilities relevant to electrochemical engineering. Students benefit from access to dedicated laboratories, advanced materials characterisation tools and faculty research groups working on energy storage, conversion and materials development.

• Interdisciplinary research: opportunities to collaborate with materials scientists, chemists and other engineering disciplines on energy and sustainability challenges.
• Hands-on learning: a balance of laboratory work, modelling and project-based instruction that builds practical skills sought by industry and research employers.
• Industry links: proximity to a growing regional clean-energy ecosystem and established connections with companies and national research facilities provide internship and collaborative research opportunities.
• Career support: engineering career services, networking events and faculty mentorship help students transition to professional or academic careers after graduation.