Purdue University

What you'll study

The Bachelor of Engineering at Purdue is offered through the College of Engineering and is delivered as discipline-specific degree programmes (for example Civil, Mechanical, Electrical and Computer, Chemical, Aerospace, Industrial, Biomedical and Materials Engineering). The curriculum combines foundational mathematics and science with progressively specialised engineering topics, laboratory classes and multi‑semester design experiences.

Typical curriculum structure

• First year: engineering fundamentals, single and multivariable calculus, physics, chemistry (depending on major), introductory computing and communication skills, and a first‑year engineering seminar or project sequence.
• Sophomore year: core engineering courses for the chosen major (e.g. statics and dynamics, circuits, thermodynamics, materials), laboratory work, and the start of discipline‑specific design and computing modules.
• Junior year: advanced technical courses, electives that allow specialisation (for example control systems, fluid mechanics, power systems, heat transfer, structural analysis, biochemical engineering), and engineering mathematics such as differential equations and numerical methods.
• Senior year: a capstone design project or senior design sequence that emphasises team work, project management and professional engineering practice, plus technical electives and opportunities for undergraduate research.

Typical modules and learning activities

• Core STEM modules: calculus, linear algebra, physics, chemistry and probability/statistics for engineers.
• Major-specific technical modules: e.g. circuit analysis and embedded systems for Electrical and Computer Engineering; fluid mechanics and heat transfer for Mechanical and Aerospace; process design and reaction engineering for Chemical.
• Laboratory and practical work: hands‑on experiments, instrumentation, computer simulation, and maker‑space prototyping.
• Design and teamwork: multi‑semester design projects, industry‑sponsored challenges and capstone projects that culminate in a demonstrable prototype or design report.
• Professional development: ethics, communication, engineering economics and preparation for internships and licensure pathways.

Entry requirements

Entry to Purdue's engineering programmes is competitive and typically requires a strong high school record with emphasis on mathematics and sciences. Typical requirements include completion of advanced secondary courses in calculus (or pre‑calculus plus additional mathematics), physics and chemistry.

• Academic transcripts showing strong performance in mathematics and science subjects.
• Evidence of problem‑solving and technical readiness, often demonstrated through advanced placement courses, IB Higher Level subjects, A‑levels or equivalent.
• Supporting documents: a personal statement or essay, and letters of recommendation may be required or strongly encouraged.
• International applicants: proof of English language proficiency and certified academic records; specific documentation requirements vary by country and credential.
• Applicants transferring from other institutions should provide college transcripts and may need to meet department‑specific transfer criteria; placement into major curricula can depend on completed coursework.

Purdue uses a holistic admissions process; prospective students should consult the university's admissions pages for full, up‑to‑date application instructions.

Career prospects

Graduates of Purdue's engineering programmes move into a wide range of technical and managerial roles. Employers include established engineering firms, technology companies, manufacturing organisations, consulting practices, energy and utilities, government agencies and start‑ups.

• Common job titles: design engineer, systems engineer, project engineer, process engineer, test engineer, software or firmware engineer, quality and manufacturing engineer, and technical consultant.
• Graduates frequently pursue roles in research and development, product design, systems integration, construction and infrastructure, energy and environmental engineering, and biomedical device development.
• Many graduates continue to professional qualifications such as the professional engineer (PE) licence, or undertake postgraduate study (Masters or PhD) in specialised areas.
• The programme also prepares students for interdisciplinary careers where engineering skills combine with business, data science or policy expertise.

Why study at Purdue University

Purdue's College of Engineering is known for its broad range of accredited engineering disciplines, strong emphasis on experiential learning and large, active research community. Students benefit from extensive laboratory facilities, maker spaces, and opportunities to work on faculty‑led research projects.

• Industry connections and career services that support internships, co‑op placements and graduate recruitment across national and global employers.
• Hands‑on learning through design courses, interdisciplinary project teams and competition teams (for example robotics, aeronautics and formula-style vehicle teams).
• Access to research centres and collaborative institutes that let undergraduates participate in cutting‑edge work across areas such as materials, energy, autonomous systems and biomedical engineering.
• A supportive environment for professional development, with mentorship programmes, student societies and pathways to licensure or postgraduate study.

Prospective students should review department pages for discipline‑specific information on course options, facilities and opportunities for experiential learning and research.