State University of New York

What you'll study

The programme combines core theory, laboratory work and a substantial project or thesis to prepare students for advanced work in communications. Core topics typically include digital and analogue communications, wireless and mobile communications, advanced signal processing, RF and microwave engineering, antenna systems, and network theory. Students also study supporting subjects such as control systems, embedded systems, semiconductor devices and optics where relevant.

Study is delivered through a mix of lectures, problem classes and hands-on laboratory sessions. Practical components emphasise software-defined radio, network testbeds, FPGA prototyping, and measurement in RF laboratories. Assessment usually combines coursework, lab reports, exams and a major capstone project or research thesis that allows students to apply theory to a realistic communications engineering challenge.

• Digital Communications and Coding
• Advanced Signal Processing
• Wireless and Mobile Communications
• RF and Microwave Systems
• Antenna Design and Propagation
• Optical Communications (elective)
• Network Protocols and Architecture
• Embedded Systems for Communications
• Research Methods and Project/Thesis

Programme structure

Students typically complete a combination of taught modules and a supervised research or design project. Options often allow specialisation in areas such as wireless systems, optical networks, or communications software. Full-time students usually complete the degree within one to two years, while part-time options are often available.

Entry requirements

Applicants are normally expected to hold a recognised bachelor’s degree in electrical engineering, electronics, computer engineering or a closely related discipline. Typical academic requirements include a solid record in undergraduate courses relevant to electronics and communications such as circuits, signals and systems, and probability. Candidates with strong technical experience or relevant professional practice may be considered even if their first degree is in a neighbouring field.

Typical application materials include academic transcripts, a statement of purpose, a CV, and one or more academic or professional references. Some campuses or departments may request GRE scores, particularly for applicants seeking research funding, but this is not universally required. International applicants whose first language is not English must demonstrate proficiency through an approved English test.

Career prospects

Graduates from this programme go on to roles across telecommunications, electronics manufacturing, defence, aerospace, information technology and research organisations. Common job titles include communications engineer, RF/microwave engineer, systems engineer, network engineer, signal processing engineer, and design engineer. The degree also provides a clear pathway to doctoral study and careers in academic or industrial research. Employers can range from telecom operators and equipment manufacturers to specialist R&D firms and startups developing wireless or IoT solutions.

Why study at State University of New York

The State University of New York system offers access to a broad range of campuses with established engineering departments and specialised research centres in communications and electronics. Students benefit from laboratories equipped for RF, microwave and optical experimentation, collaborative projects with local industry, and opportunities for internships through regional technology clusters. Faculty typically combine academic research with industry experience, supporting applied projects and thesis work. The system’s scale also provides multidisciplinary collaboration across computer science, materials and physics, which is useful for tackling contemporary communications challenges.