University of Chicago

What you'll study

The programme builds a solid foundation in mathematics, physics and core engineering principles in the first years, then moves to specialised topics in electronics and communications. Typical topics and modules include:

• Foundations: Calculus, linear algebra, differential equations and probability for engineers; classical mechanics and electromagnetism.
• Electronics and circuits: Analogue and digital circuit analysis, semiconductor devices, microelectronics, and power and energy topics.
• Signals and systems: Time- and frequency-domain analysis, continuous and discrete signals, Laplace and Fourier transforms.
• Communications: Information theory, digital communications, modulation and coding, wireless systems, optical communications and networking principles.
• Electromagnetics and RF: Maxwell’s equations, transmission lines, antennas, radio-frequency circuit design and microwave engineering.
• Control and embedded systems: Control theory, microcontrollers, real-time systems and sensor/actuator interfacing.
• Signal processing: Digital filtering, spectral analysis, adaptive and statistical signal processing for communications and sensing.
• Laboratory and design work: Hands-on electronics and communications labs, PCB design and fabrication, software-defined radio projects and a team capstone design project in the final year.
• Electives and interdisciplinary options: Students can choose electives in computer engineering, machine learning for communications, optical devices, networking, cybersecurity, and entrepreneurship.

Throughout the degree students are expected to undertake programming and software tools training (for example in MATLAB, Python and HDL), and are encouraged to participate in research projects, internships and industry collaborations.

Entry requirements

Admission to the programme is competitive and seeks applicants with strong performance in mathematics and the physical sciences as well as evidence of academic curiosity and problem‑solving ability. Typical academic preparation includes:

• High school completion with advanced study in mathematics and physics (for example A‑levels, IB Higher Level, or equivalent). Admissions readers look for top grades in these subjects.
• For applicants from systems using standardised tests, a strong record in relevant subject tests (for example AP Calculus and AP Physics) or similar university entrance examinations strengthens an application.
• A well‑developed application including academic transcripts, personal essay(s) and, where required, letters of recommendation. Practical experience such as project work, robotics, programming, laboratory coursework or relevant internships is beneficial.

Admissions decisions are made holistically; applicants from diverse backgrounds who show preparation for rigorous STEM study and the intellectual breadth required by the university are encouraged to apply. Prospective students should consult the university’s admissions office for specific credential and documentation requirements for their region.

Career prospects

Graduates are prepared for technical roles in industry, research and further study. Common career paths include:

• Design and development engineer roles in communications, wireless and networking companies (RF engineer, wireless systems engineer, network engineer).
• Electronics and semiconductor engineering positions, including analogue/digital IC design, hardware engineering and testing.
• Signal processing and data engineering roles in telecommunications, audio/video systems, radar and remote sensing.
• Systems engineering and embedded-systems development for automotive, aerospace and IoT applications.
• Technical roles in software-defined radio, optical networking and cybersecurity fields.
• Research and development positions or further academic study at master’s and doctoral level in electrical engineering, communications, applied physics or related disciplines.
• Non‑technical careers that value quantitative and analytical skills, including technology consulting, product management and finance.

Students often secure internships and co‑op placements during their studies and many pursue graduate study or industry research positions that build on undergraduate project and laboratory experience.

Why study at University of Chicago

The University of Chicago combines rigorous engineering training with the university’s distinctive emphasis on critical thinking and broad intellectual inquiry. Students benefit from close interaction with faculty engaged in cutting‑edge research, access to interdisciplinary centres and collaborations, and proximity to national laboratories and a diverse technology ecosystem in Chicago.

• Interdisciplinary strengths: Opportunities to take courses across physical sciences, computer science, economics and public policy to place engineering work in broader contexts.
• Research and facilities: Access to laboratory space, research groups and partnerships with nearby national labs and industry for internships and projects.
• Capstone and hands‑on learning: Emphasis on laboratory coursework and a team capstone that simulates real‑world engineering design and project management.
• Career support: Dedicated career services and industry links that help students find internships, co‑op placements and graduate opportunities.
• Location: Chicago’s technology, manufacturing and communications sectors provide a wide range of employer connections and experiential learning opportunities.

Combined, these features make the programme a strong choice for students seeking a rigorous, research‑oriented education in electrical, electronics and communications engineering within a vibrant academic environment.