Florida International University

What you'll study

The Bachelor of Engineering curriculum combines foundational science and mathematics with discipline-specific engineering coursework, laboratory work and team-based projects. Early years focus on calculus, physics, chemistry, computing and engineering fundamentals; later years emphasise specialised design, analysis and capstone projects that integrate technical, economic and ethical considerations.

• Core subjects: calculus and differential equations, physics for engineers, general chemistry, engineering graphics, programming for engineers, materials science, and statistics.
• Discipline-specific modules: depending on the chosen pathway, students study modules such as mechanics and dynamics (mechanical), circuits and electromagnetics (electrical), fluid mechanics and thermodynamics (mechanical/chemical), structural analysis and geotechnical engineering (civil), or transport phenomena and process design (chemical).
• Laboratories and practical work: hands-on labs, instrumentation and measurement, prototype development, and software tools for modelling and simulation.
• Design and capstone: multi-semester design projects or senior design courses culminating in a team-based capstone that emphasises real-world problem solving, project management and communication.
• Electives and interdisciplinary options: technical electives, entrepreneurship, sustainability, data analytics, and opportunities to take courses across computer science, business and environmental studies.

Entry requirements

FIU looks for applicants with strong backgrounds in mathematics and the sciences and evidence of academic readiness for an engineering degree. Requirements vary by applicant type (domestic, international, transfer), but typical expectations include:

• Successful completion of secondary school with strong performance in mathematics (algebra, geometry, pre-calculus or calculus) and physics and/or chemistry.
• College preparatory coursework in calculus and science for incoming students; advanced placement (AP) or International Baccalaureate (IB) credits may be recognised and can accelerate progress in the programme.
• For transfer applicants, completion of introductory college-level calculus and physics courses with competitive grades and submission of official transcripts from previous institutions.
• English language proficiency for applicants whose first language is not English, demonstrated through standardised tests or recognised exemptions accepted by the university.
• Additional materials: standard application documentation such as transcripts and statements; some programmes may recommend or require a personal statement describing interest in engineering and relevant experience. Standardised tests (when used) and portfolio work are assessed according to current university policy.

Career prospects

Graduates with a Bachelor of Engineering from FIU enter a broad range of technical and professional roles. The programme emphasises practical skills and teamwork valued by employers across sectors.

• Typical roles: design engineer, project engineer, systems engineer, manufacturing engineer, civil/site engineer, electrical systems designer, process engineer, quality assurance engineer, and field engineer.
• Industry sectors: construction and infrastructure, energy and utilities, transportation, aerospace and defence, manufacturing, telecommunications, biomedical and medical devices, environmental engineering and consulting.
• Further study and professional development: many graduates pursue graduate degrees (master’s or PhD) or professional licensure (such as becoming a licensed professional engineer), and some move into management, product development, technical sales or entrepreneurship.

Why study at Florida International University

FIU offers engineering students access to a diverse, urban campus with extensive laboratory facilities, research centres and industry partnerships in the region. The university’s engineering programmes are designed to combine theory with applied learning through internships, cooperative education opportunities and community-engaged projects.

• Applied research and labs: opportunities to work in research centres and labs on topics such as sustainable infrastructure, advanced materials, robotics, and biomedical engineering.
• Industry connections: proximity to a dynamic regional economy supports internships, practicum placements and collaboration with local and international employers.
• Support and student life: academic advising, tutoring, student engineering societies and chapters of national professional organisations that help with networking, professional development and extracurricular project teams (e.g., robotics, concrete canoe, Baja/Formula SAE).