Purdue University

What you'll study

The programme builds a strong foundation in mathematics, physics and core electrical engineering before moving into specialist topics in electronics and communications. Early coursework typically covers calculus, differential equations, linear algebra, classical mechanics and introductory programming, followed by circuit analysis, digital logic, analogue electronics, signals and systems, and electromagnetic theory.

• Core modules: circuit theory, digital systems, microprocessors, electromagnetics, control systems, power systems fundamentals.
• Communications and signal processing: analogue and digital communications, information theory, wireless communication systems, modulation and coding, digital signal processing (DSP).
• Electronics and microelectronics: analogue and digital IC design, semiconductor devices, RF circuits and microwave engineering, mixed-signal design.
• Laboratory and practical work: hands-on labs in circuits, DSP, communications, embedded systems and RF; use of tools such as oscilloscopes, spectrum analysers, FPGA and CAD software.
• Capstone and design project: a year-long senior design project or team-based capstone where students develop, prototype and present a working system addressing a real-world engineering challenge.
• Electives and interdisciplinary options: courses in computer engineering, networking, cybersecurity, machine learning for communications, and optoelectronics allow customisation to career interests.

Structure

The degree is structured to progress from foundational science and mathematics in the first years to increasingly specialised and project-based learning in the later years. Laboratory courses and design experiences are integrated throughout, and students are encouraged to pursue internships, co‑op placements or undergraduate research alongside the taught curriculum.

Entry requirements

Applicants should hold a secondary school qualification that demonstrates strong achievement in mathematics and the physical sciences. Typical preparation includes calculus, physics and, where available, advanced mathematics or engineering-related subjects. Admissions consider overall academic record, strength of STEM coursework, and extracurricular activities that show technical interest.

• Academic background: high achievement in mathematics (including calculus) and physics is expected.
• Standardised tests and English language: standardised test scores may be considered where submitted; international applicants must satisfy English language proficiency requirements through accepted qualifications or tests.
• Additional materials: personal statements, references and evidence of practical experience (projects, competitions, internships) strengthen an application; some applicants may also have portfolios of coursework or research.

Career prospects

Graduates are prepared for roles designing, developing and maintaining electronic and communication systems across industry and research. Employment sectors include telecommunications, wireless and cellular networks, semiconductor and microelectronics firms, aerospace and defence, automotive electronics, consumer electronics and IT services.

• Typical job titles: communications engineer, RF engineer, signal processing engineer, hardware design engineer, embedded systems engineer, network systems engineer.
• Other pathways: many graduates move into systems architecture, technical product management, consultancy, or continue to postgraduate study in specialised areas such as communications theory, microelectronics or applied electromagnetics.
• Graduate employers: roles with network operators, semiconductor manufacturers, defence contractors, research laboratories, and technology start‑ups are common, supported by the university’s strong industry links and career services.

Why study at Purdue University

Purdue’s engineering programmes are delivered by a large, well‑resourced engineering school with extensive laboratory facilities and active research groups in communications, signal processing, microelectronics and electromagnetics. Students benefit from access to specialist facilities, opportunities for undergraduate research alongside faculty, and a culture of collaboration across engineering disciplines.

• Strong industry connections and career support help students secure internships and co‑op placements that enhance employability.
• Student organisations and technical societies (such as IEEE chapters and project teams) provide practical experience, networking and leadership opportunities.
• Cross‑disciplinary projects and elective options allow students to combine communications expertise with computer engineering, data science or controls, reflecting the multidisciplinary nature of modern technology development.