Villanova University

What you'll study

The programme provides a core electrical engineering curriculum with focused study areas in electronics and communications. You will take foundational courses in calculus, differential equations and physics, followed by core electrical engineering subjects such as circuits and systems, digital logic and computer architecture, electromagnetic fields, control systems and power systems. Communications‑focused modules typically include signals and systems, digital communications, analog and RF communications, wireless networks, and signal processing for communications.

• First years: mathematics, physics, introductory programming, basic circuits and laboratory skills.
• Core years: electronic devices and circuits, microprocessors and embedded systems, electromagnetics, control theory, and applied probability and statistics for engineers.
• Communications specialism: signals and systems, digital signal processing, modulation and coding, RF engineering, wireless communications, and networking fundamentals.
• Laboratory and project work: hands‑on labs in electronics, communications and embedded systems; team design projects that culminate in a senior capstone integrating hardware and software.
• Electives and options: advanced topics such as optical communications, antenna design, network security, Internet of Things (IoT) systems, and machine learning for signal processing.

Entry requirements

Applicants are normally expected to have completed secondary school with a strong record in mathematics (calculus where available) and physics. Successful candidates typically demonstrate strong analytical skills, problem‑solving ability and preparation in science and mathematics. Typical application materials include a completed university application, academic transcripts, and a personal statement explaining interest in engineering.

• Academic background: secondary qualifications with emphasis on mathematics and physics; preparation in chemistry and computer science is beneficial.
• Supporting documents: personal statement, and letters of recommendation from teachers or mentors are usually recommended.
• Other evidence: participation in STEM extracurriculars, engineering clubs, robotics, internships or relevant project work strengthens an application.

Career prospects

Graduates enter a wide range of technical careers in telecommunications, electronics, power systems, embedded systems and related fields. Typical roles include communications engineer, RF/wireless engineer, signal processing engineer, embedded systems developer, network engineer and systems designer. Many graduates also move into software roles, product development, systems integration and technical project management.

• Employment sectors: telecoms and wireless providers, electronics manufacturers, defence and aerospace contractors, semiconductor and semiconductor equipment firms, utilities and power companies, and technology consultancies.
• Further study: options include specialised master’s degrees in communications, signal processing, control systems, or electrical engineering, as well as research degrees (MPhil/PhD) for careers in academia or R&D.
• Professional development: preparation for engineering licensure and industry certifications, and opportunities to develop leadership through capstone and team projects.

Why study at Villanova University

Villanova offers an undergraduate engineering education with a strong emphasis on ethical leadership, hands‑on learning and close faculty mentorship. The electrical and computer engineering programme is accredited and combines rigorous classroom instruction with laboratory work, design projects and internship opportunities. Small class sizes and an active engineering community provide personalised support, while strong ties with industry and an engaged alumni network help students secure internships and early‑career roles.

• Hands‑on facilities and labs to practise electronics, embedded systems and communications engineering.
• Capstone design sequence that emphasises teamwork, systems integration and real‑world problem solving.
• Opportunities for internships, cooperative experiences and partnerships with regional and national employers.
• An educational environment grounded in a values‑based liberal arts context, supporting communication and leadership skills valued by employers.