University of Arizona

What you'll study

The programme offers both thesis (research) and non‑thesis (coursework or project) paths, allowing students to pursue advanced analytical, experimental and design skills. Core and elective coursework covers subjects such as advanced structural analysis and design, finite element methods, earthquake engineering, reinforced concrete and steel design, soil mechanics and foundation engineering, geotechnical design, pavement engineering, transportation systems and traffic engineering, hydraulics and open‑channel flow, water resources and hydrologic modelling, environmental engineering and contaminant transport, construction engineering and project management, materials characterisation, and numerical and probabilistic methods for engineering.

Students engage in laboratory work and applied research in on‑campus facilities, with typical components including structural testing and materials labs, hydraulics and water resources labs, environmental chemistry instrumentation, and geotechnical testing facilities. The curriculum emphasises practical problem solving, computer modelling (for example finite element and GIS tools), and opportunities for interdisciplinary projects involving sustainability, resilience and infrastructure systems in arid and semi‑arid environments.

Typical programme structure

• Thesis option: advanced coursework plus a supervised research thesis leading to original results under a faculty advisor.
• Non‑thesis option: a heavier coursework load with a capstone project or technical report suitable for professional practice.
• Research seminars and elective seminars that allow students to work closely with faculty on funded research projects in areas such as seismic design, water resources management, pavement performance, environmental remediation and transportation analytics.

Entry requirements

Applicants are expected to hold a recognised bachelor’s degree in civil engineering or a closely related engineering/science discipline. Typical admissions documentation includes official transcripts, a current CV or resume, a statement of purpose describing academic and professional goals, and academic or professional references. International applicants must demonstrate English proficiency through an accepted test or approved institutional alternative.

Where applicants come from different undergraduate backgrounds, the department may specify prerequisite undergraduate coursework (for example in mechanics, mathematics and basic civil engineering subjects) that must be completed before or during the early part of the programme. Admission is competitive and may consider past academic performance, relevant research or professional experience, and the match between applicant interests and faculty supervision. The department may offer graduate assistantships or other funding opportunities to qualified applicants; funding decisions are separate from admission.

Career prospects

Graduates pursue careers across public and private sectors and in research. Typical roles include structural engineer, geotechnical engineer, transportation engineer or planner, water resources engineer, environmental consultant, pavement and materials engineer, construction/project manager, and infrastructure resilience specialist. Graduates with a thesis and research experience often continue to doctoral study or take research and development positions in industry, national laboratories, or academia.

Employment locations commonly include consulting engineering firms, construction and infrastructure companies, municipal and state transportation and water agencies, environmental and remediation firms, and technology companies developing modelling and asset‑management tools. The programme’s combination of laboratory, field and computational training prepares graduates for licensure pathways where applicable and for leadership roles in design, analysis, policy and research.

Why study at University of Arizona

The University of Arizona’s civil engineering programme combines strong disciplinary breadth with research strengths relevant to the region and beyond, including water resources and arid‑land hydraulics, seismic and resilient infrastructure, transportation systems, and sustainable materials. Students benefit from access to well‑equipped laboratories, interdisciplinary research centres, and faculty who maintain active industry and agency collaborations.

The location offers distinctive opportunities for fieldwork and applied projects in a dryland environment, and ties to regional transportation and water management agencies support practicum and employment pathways. Graduate students can also access professional development and career services provided by the College of Engineering, and may be eligible for research or teaching assistantships that provide practical experience alongside financial support.