University of South Alabama

What you'll study

The programme builds a strong foundation in core chemical engineering topics while offering specialised study and research opportunities in electrochemical engineering. Typical core modules include advanced transport phenomena, reaction engineering, thermodynamics and process modelling. Electrochemical-specific courses cover electrochemical kinetics and thermodynamics, corrosion science and prevention, electrochemical energy conversion and storage (batteries and fuel cells), electrochemical reactor design, electrode materials and surface science, and analytical electrochemistry.

Students choose between thesis and non-thesis tracks. The thesis route emphasises original research under faculty supervision, culminating in a written thesis and defence. The non-thesis route focuses on coursework and project-based learning, including a capstone design or research project. Practical laboratory work and computational modelling are integral: students gain hands-on experience in electrochemical testing, materials characterisation, cell design, and process simulation. Interdisciplinary options are available through collaborations with materials science, mechanical engineering and environmental engineering.

Entry requirements

Applicants are normally expected to hold a bachelor's degree in chemical engineering or a closely related engineering or science discipline. Typical supporting materials include official academic transcripts, a curriculum vitae or resume, a statement of purpose describing research or career interests, and letters of recommendation from academic or professional referees. For applicants whose first language is not English, proof of English proficiency is required (for example, an internationally recognised English test or equivalent evidence of proficiency).

The department may consider applicants with strong quantitative preparation from other engineering or science backgrounds, although such applicants may be advised to complete prerequisite undergraduate coursework before or during the programme. Some applicants pursue the programme on a part-time basis while working; funding and assistantship availability vary and are competitive.

Career prospects

Graduates with a master’s in chemical engineering concentrating in electrochemical engineering are prepared for technical, research and managerial roles across a range of sectors. Typical employers and roles include:

• Energy and storage companies — battery and fuel cell development, cell testing and systems integration.
• Petrochemical and process industries — corrosion mitigation, electrochemical monitoring and process optimisation.
• Manufacturing and surface finishing — electroplating, anodising and electrochemical machining.
• Water and environmental engineering — electrochemical treatment and pollutant removal technologies.
• Research organisations and national laboratories — applied research, pilot-scale testing and technology development.
• Consulting, technical sales and regulatory roles that require electrochemical expertise.

Graduates also use the master’s as a stepping stone to doctoral study or academic careers. The hands-on laboratory experience and modelling skills developed in the programme are particularly valued by employers working on energy transition technologies and advanced materials.

Why study at University of South Alabama

The University of South Alabama offers a programme with close faculty supervision, accessible laboratory facilities and opportunities for applied research. The Department of Chemical Engineering supports experimental and computational work relevant to electrochemical systems, and students benefit from small cohort sizes that encourage mentoring and collaboration with faculty. The university’s location provides proximity to Gulf Coast industries, enabling partnerships and applied projects with regional energy, materials and manufacturing companies.

Students can engage in interdisciplinary research with colleagues in related engineering departments and take advantage of on-campus laboratory instrumentation for materials characterisation, electrochemical testing and process simulation. The programme emphasises practical skills, preparing graduates for both industry positions and further academic research, while offering the personalised support typical of a mid-sized research university.