University of Tulsa

What you'll study

This pragmatic programme combines engineering fundamentals with applied energy technology to prepare graduates for work across utilities, oil & gas service companies, renewable installers and building systems providers. Core subjects cover thermodynamics of energy systems, electrical circuits and power fundamentals, fluid mechanics, materials for energy applications and instrumentation and controls.

• Fundamental science and maths: calculus, physics, and introductory materials science that underpin energy technology.
• Energy engineering core: thermodynamics, heat transfer, fluid dynamics, combustion and power‑plant fundamentals.
• Electrical and control systems: electrical circuits, power electronics, control systems, PLCs and SCADA basics for energy applications.
• Renewables and distributed energy: solar PV and thermal, wind energy principles, battery energy storage and microgrids.
• Building and industrial energy systems: HVAC fundamentals, energy auditing, building automation and industrial process energy management.
• Practical skills and safety: hands‑on laboratory work, instrumentation, field measurement techniques, and health & safety for energy operations.
• Professional practice: project management, technical communication, energy economics and regulatory context for energy systems.
• Capstone project and internships: a culminating applied project with industry or faculty supervision, and opportunities for internships with regional energy employers.

Entry requirements

Applicants are expected to have a strong high‑school foundation in mathematics (including algebra and preferably calculus), physics and English. Typical admission criteria include a completed high‑school diploma or equivalent and academic records demonstrating readiness for STEM coursework.

• For domestic applicants: satisfactory GPA and submission of transcripts; standardised tests may be optional depending on current university policy.
• For international applicants: proof of equivalent secondary education and English language proficiency through recognised tests or approved alternatives.
• Recommended preparation: courses or experience in algebra, trigonometry, physics and computer familiarity (CAD or basic programming) will help students succeed in the technical curriculum.
• Transfer students: community college coursework in mathematics, physics and introductory engineering/technology courses will typically be considered for credit.

Career prospects

Graduates leave equipped for technical and operational roles across the energy sector. Career paths commonly pursued include:

• Energy systems technician or technologist in power generation, utilities or industrial plants.
• Field service and commissioning engineer for renewable energy installations (solar, wind) and energy storage systems.
• Building systems technician, energy auditor or facilities energy manager focusing on efficiency and retrofits.
• Instrumentation and controls technician working on PLCs, SCADA and automation in energy and manufacturing environments.
• Operations roles with oil & gas service companies, independent power producers and grid operators.
• Progression to supervisory or project management roles, or further study in engineering, energy management or business.

Why study at University of Tulsa

The University of Tulsa offers a programme closely connected to a regional energy economy, providing students with access to internships, industry speakers and applied project opportunities with local employers. Small class sizes allow for personalised instruction in laboratory and field settings, while campus facilities support hands‑on learning in instrumentation, control systems and applied energy testing.

Students benefit from a curriculum designed to balance technical competence with workplace skills — safety, project management and communication — and from a network of alumni and industry partners in the Tulsa area and beyond, helping graduates transition quickly into technical roles within the energy sector.