Dartmouth University

What you'll study

The programme combines core theory in electromagnetics, signals and systems with applied courses in communications, electronics and networked systems. Typical modules and topics include:

• Digital Communications: modulation and coding, channel models, information theory basics and system design.
• Wireless and Mobile Communications: cellular systems, OFDM, MIMO, link budget and propagation fundamentals.
• Signal Processing for Communications: filters, estimation, spectral analysis, adaptive algorithms and applications to audio, radar and communications.
• RF and Analog Electronics: RF circuit design, antennas, low-noise amplifiers and practical measurement techniques.
• Embedded Systems and Hardware Design: microcontrollers, FPGA-based prototyping, mixed-signal design and system integration.
• Networking and Protocols: network architectures, transport and routing protocols, and aspects of networked communications.
• Advanced Topics and Electives: topics such as machine learning for communications, software-defined radio, photonics for communications, and VLSI for signal processing.
• Laboratory and Design Project / Thesis: a substantial hands-on capstone or research thesis that integrates theory and practice through experiments, prototypes or simulation-based system development.

Programme structure typically mixes coursework and a sustained design or research project; students may choose a coursework-focused route with a major capstone or a research-led route culminating in a thesis. The curriculum emphasises experimental work, team design projects and close mentoring with faculty in electrical and computer engineering research groups.

Entry requirements

Applicants are normally expected to hold a good bachelor's degree in electrical engineering, electronic engineering, computer engineering, physics, or a closely related discipline. Typical preparation includes undergraduate coursework in circuits, signals and systems, electromagnetics, probability and linear algebra.

• Academic transcript: evidence of strong quantitative performance in relevant coursework.
• References: two or three academic or professional references that can speak to technical preparation and potential for graduate study.
• Statement of purpose: a clear description of academic interests, relevant experience and intended career or research goals.
• CV / résumé: summarising engineering experience, projects, internships and any publications.
• Additional requirements: depending on background, applicants may be advised to demonstrate competency in programming, circuit lab work or applied mathematics; GRE scores may be optional or recommended by some departments, and international applicants will need to meet English language proficiency requirements.

Applicants without a first-degree in engineering but with strong quantitative backgrounds and relevant experience can be considered; they may be asked to complete preparatory courses before or during the programme.

Career prospects

Graduates enter a range of roles across communications, electronics and systems engineering. Common career paths include:

• Communications systems engineer in telecommunications and wireless industry, working on physical-layer and network-layer design.
• RF and microwave engineer designing components for mobile, satellite or radar systems.
• Embedded systems and FPGA engineer developing hardware/software integrated products for IoT, automotive or industrial applications.
• Signal processing engineer in areas such as audio, imaging, medical devices or remote sensing.
• Systems engineer or product lead in technology companies, startups and defence contractors focusing on complex communications products.
• Research and development roles in corporate labs or national research centres, and a pathway to PhD study and academic careers for those pursuing further research.

Alumni typically find positions in telecommunications providers, semiconductor and RF component manufacturers, aerospace and defence firms, medical technology companies, and software companies working on communications and networking solutions.

Why study at Dartmouth University

The engineering school at Dartmouth emphasises close faculty mentorship, interdisciplinary collaboration and hands-on design. Small class sizes allow personalised project supervision and rapid access to faculty working in communications, signal processing and electronics.

• Interdisciplinary environment: opportunities to collaborate with computer science, physics and biomedical engineering groups, as well as centres that focus on data science and computing.
• Project- and lab-focused learning: well-equipped electronics, RF and prototyping labs provide the facilities needed for hands-on coursework and capstone projects.
• Industry connections: strong ties with regional and national technology companies and startups, supporting internships, industrial projects and career placement.
• Research opportunities: access to faculty-led research groups in communications, RF systems, signal processing and related areas for students interested in advanced research or doctoral study.

Overall, the programme is suitable for students seeking a balance of theoretical foundations and practical engineering experience in communications and electronics, with the flexibility to pursue industry roles or further research.