Michigan Technological University

What you'll study

The programme delivers a core chemical engineering curriculum—calculus, physics, general and physical chemistry, material and energy balances, transport phenomena, thermodynamics, reaction engineering, separations and process control—combined with targeted coursework and laboratories in electrochemical topics. Typical electrochemical‑oriented modules and topics include electrochemical engineering, electrochemical energy systems (batteries and fuel cells), corrosion science and prevention, electrode and electrolyte materials, electrochemical kinetics and mass transfer, and instrumental methods for electrochemical characterisation.

Students take a mix of lecture courses and hands‑on laboratory classes, including chemical engineering labs, materials characterisation, and specialised electrochemistry labs where students learn techniques such as cyclic voltammetry, impedance spectroscopy and electrode fabrication. The curriculum culminates in a senior capstone design project, often allowing teams to work on industry‑sponsored or research‑based electrochemical problems.

Elective options enable interdisciplinary study with materials science, mechanical engineering, electrical engineering and environmental engineering, supporting specialisation in areas such as energy storage, corrosion mitigation, electrochemical manufacturing, or renewable energy systems. Opportunities for undergraduate research and independent study let students deepen practical skills in advanced battery materials, fuel cell components, corrosion testing or electrochemical process development.

Entry requirements

Applicants should hold a recognised secondary school diploma with strong preparation in mathematics and the sciences. Typical preparation includes courses in calculus or pre‑calculus, high school physics, and high school chemistry; laboratory experience is strongly recommended. Successful candidates demonstrate solid problem‑solving ability, proficiency in mathematics and science, and an interest in engineering design and experimentation.

For international applicants, academic credentials equivalent to U.S. secondary qualifications are required, together with demonstrated English language proficiency through accepted tests or institutional pathways. Transfer applicants and those with prior college coursework should present transcripts showing calculus and STEM coursework. Admissions are competitive; applicants strengthen their prospects with advanced math (calculus), AP/IB STEM credits where available, relevant extracurriculars (e.g. robotics, science clubs), and any engineering or laboratory experience.

Career prospects

Graduates are well placed for roles in industries that develop, manufacture or apply electrochemical technologies. Common career paths include process engineer, battery and energy storage engineer, fuel cell engineer, corrosion engineer or materials processing engineer. Employers include battery manufacturers, automotive and aerospace companies working on electrification, chemical and specialty materials firms, metal finishing and plating companies, power and utility firms, and environmental engineering consultancies.

Alumni also move into related roles in product development, quality and manufacturing engineering, technical sales, and regulatory or safety roles. The degree provides solid preparation for graduate study in chemical engineering, materials science, electrochemical engineering, or related research areas focused on energy storage, electrochemical conversion and surface science.

Why study at Michigan Technological University

Michigan Technological University is known for its hands‑on, experiential engineering education with a strong emphasis on undergraduate research and close faculty mentoring. The Chemical Engineering programme provides plentiful laboratory access and collaborative opportunities with nearby materials and energy research groups, enabling students to work on contemporary electrochemical challenges such as batteries, fuel cells and corrosion.

The university has strong industry connections in the Great Lakes region and beyond, supporting internships, co‑op placements and sponsor projects that give practical experience relevant to electrochemical careers. Small class sizes in upper‑level engineering courses, a capstone design sequence, and active student engineering organisations help students build professional skills and networks while receiving rigorous technical training.