University of Mississippi

What you'll study

The programme builds a solid chemical engineering core in the first two years and progresses to specialised electrochemical topics in later years. Core subjects typically include thermodynamics, fluid mechanics, heat and mass transfer, reaction engineering, separations and process control. On top of these, students study electrochemical fundamentals such as electrode kinetics, electrochemical thermodynamics, corrosion science, transport in ionic media, and electrochemical materials.

• Introductory and advanced mathematics for engineers (calculus, differential equations, linear algebra)
• Chemical engineering core: material and energy balances, fluid mechanics, heat and mass transfer, reactor design, separations
• Electrochemical modules: electrochemistry, electrode processes, batteries and fuel cells, corrosion and protection, electrochemical sensors
• Laboratory courses with hands-on electrochemical techniques (potentiometry, voltammetry, impedance spectroscopy) and process laboratory work
• Computational and modelling topics: process simulation, electrochemical modelling, data analysis
• Design and professional practice: statistics, safety, sustainability and a senior capstone design project often addressing real-world electrochemical or energy storage problems

Students can expect a mix of lectures, problem classes, laboratory sessions and team-based design projects. Opportunities exist to work with faculty research groups on electrochemical energy storage, corrosion mitigation or sensor development depending on available projects.

Entry requirements

Applicants should hold a high-school diploma or equivalent with strong performance in mathematics (including calculus where available), chemistry and physics. Typical application materials include official transcripts, a personal statement demonstrating interest in engineering and electrochemical topics, and one or more academic references.

• Domestic applicants: competitive high-school grades in STEM subjects; preparation in calculus and chemistry is highly recommended.
• International applicants: an equivalent secondary-school qualification and proof of English language proficiency where English is not the first language (accepted tests and score thresholds vary by the University).
• Transfer applicants: college or university transcripts showing completed prerequisite coursework in calculus, chemistry and physics; articulation of credits is assessed on an individual basis.

Specific entry thresholds, application procedures and enrolment requirements are published by the University of Mississippi and should be consulted before applying.

Career prospects

Graduates are prepared for roles across the energy, manufacturing, chemical and materials sectors. Typical career paths include process engineer, electrochemical engineer, battery development engineer, fuel cell developer, corrosion engineer, materials engineer and technical roles in quality, production or research and development.

• Industry roles: energy storage companies, chemical and petrochemical plants, coatings and corrosion prevention firms, sensor and instrumentation manufacturers
• Research and development: industrial R&D labs, national laboratories, and university research groups working on electrochemical systems and materials
• Further study: many graduates pursue master's or doctoral study in chemical engineering, materials science, electrochemistry or related applied energy fields
• Other pathways: technical consulting, patent or regulatory roles, and entrepreneurship in cleantech and advanced materials

Why study at University of Mississippi

The University of Mississippi provides a supportive engineering environment with accessible faculty and laboratory-focused teaching. Chemical engineering students benefit from practical laboratory experience, senior design projects that address real engineering challenges, and opportunities to collaborate with faculty on research in electrochemical systems and energy storage.

The campus offers a balance of classroom instruction and hands-on training, with career services and industry engagement to help students secure internships and graduate employment. The programme is suitable for students who want rigorous engineering preparation combined with specialised knowledge in electrochemical technologies and materials.