University of Michigan

What you'll study

This programme emphasises the integration of physical energy technologies, system modelling, control, and socio‑economic considerations that affect energy deployment. Core topics typically include energy conversion and thermodynamics, power systems and grid integration, energy storage technologies, renewable energy systems (solar, wind, bioenergy), systems modelling and optimisation, and energy economics and policy.

Students follow a mix of advanced coursework and project work. Typical modules and subjects you can expect are:

• Advanced Energy Conversion and Thermal Systems – in-depth study of heat engines, refrigeration, and efficiency analysis for thermal power plants and distributed generation.
• Electric Power Systems and Grid Integration – transmission and distribution fundamentals, stability, protection, and integration of variable renewable resources.
• Energy Storage Technologies – battery electrochemistry, mechanical and thermal storage, and system-level impacts of storage deployment.
• Systems Modelling and Optimisation – mathematical modelling, optimisation techniques, simulation of multi‑vector energy systems, and demand response strategies.
• Renewable Energy Systems – technology assessment, resource characterisation, and design considerations for solar, wind and hybrid systems.
• Energy Policy and Economics – market structures, policy instruments, lifecycle analysis and cost assessment for technology adoption decisions.
• Control and Automation for Energy Systems – control theory applied to microgrids, power electronics and smart grid components.

The programme often culminates in a capstone project or thesis option where students work on applied problems with faculty, interdisciplinary research groups or industry partners. Coursework is delivered by faculty across departments and by researchers affiliated with campus energy centres.

Entry requirements

Applicants are expected to hold a strong bachelor’s degree in engineering (mechanical, electrical, chemical, civil), physics, applied mathematics, or a closely related quantitative field. Typical application materials include:

• A detailed academic transcript showing strong performance in core quantitative courses (calculus, differential equations, linear algebra, thermodynamics, circuits or equivalent).
• A statement of purpose describing academic and professional goals, and how the programme aligns with those goals.
• Two to three letters of recommendation from academic or professional referees who can speak to the applicant’s technical ability and potential for graduate study.
• A current CV or résumé highlighting relevant coursework, projects, internships or research experience.
• Proof of English language proficiency for applicants whose first language is not English (accepted tests and minimum scores are set by the university).

Standardised tests such as the GRE may be optional or considered on a case‑by‑case basis depending on the department and applicant background. Applicants with strong professional experience in energy or related sectors may be considered even if their undergraduate background is non‑traditional, provided they demonstrate sufficient technical preparation.

Career prospects

Graduates move into a variety of technical and leadership roles across the energy sector. Typical career paths include:

• Energy systems engineer or power systems engineer in utilities, independent system operators, transmission and distribution companies.
• Design and integration engineer for renewable energy developers and manufacturers of wind, solar and storage technologies.
• Grid integration and controls specialist focusing on microgrids, smart grid technologies and power electronics.
• Energy analyst, model developer or consultant working on system planning, market design, and policy assessment for governments, consultancies and think tanks.
• Research and development roles in national labs, corporate R&D groups or university research centres, or progression to doctoral study for careers in academia.

Employers of recent graduates typically include utilities, renewable developers, engineering consultancies, technology manufacturers, energy start‑ups, and government or non‑profit organisations focused on energy transition.

Why study at University of Michigan

The University of Michigan offers strong interdisciplinary strengths in energy through its College of Engineering and campus‑wide research centres. Students benefit from access to specialised labs, computational facilities and collaborative networks that bring together engineering, public policy, economics and environmental science.

Being located in Ann Arbor provides proximity to a vibrant research community and links with industry partners throughout the Midwest and nationally. The programme’s connections to applied research initiatives and industry projects help students gain hands‑on experience and professional contacts that support career development in the fast‑evolving energy sector.