Syracuse University

What you'll study

This programme combines core technical training with applied security topics and policy context. Early years focus on fundamentals such as programming, discrete mathematics, computer systems and networking, while later years move into specialised security modules and practical work.

• Foundations: introductory and intermediate programming, data structures, algorithms, operating systems and computer architecture.
• Networking and systems: computer networks, network protocols, system administration and cloud fundamentals.
• Security-specific technical modules: cryptography, applied cryptography, secure software engineering, intrusion detection and prevention, malware analysis and reverse engineering.
• Digital forensics and incident response: forensic acquisition, evidence handling, log analysis, memory forensics and live response techniques.
• Hardware and embedded security: IoT security, hardware trust, firmware analysis and secure design for connected devices.
• Human, organisational and policy topics: cybersecurity governance, risk management, privacy law and ethics, user-centred security and security economics.
• Practical experience: lab courses, capture-the-flag style exercises, capstone project and opportunities for internships or co-op placements with industry, government and non-profit organisations.
• Electives and interdisciplinary options: students can typically choose electives from computer science, engineering, information science and public policy, and may combine the degree with minors or certificates in areas such as data science, intelligence studies or homeland security.

Entry requirements

Syracuse looks for applicants with a strong foundation in mathematics and science and demonstrated interest in computing or engineering. Typical admissions materials include a high school diploma or equivalent, academic transcripts, and supporting documents such as a personal statement and letters of recommendation.

• Recommended academic preparation: high school mathematics (including algebra and precalculus or calculus), a laboratory science, and coursework in computing where available.
• International applicants should submit equivalent qualifications from recognised boards; Syracuse assesses credentials in the context of national systems.
• Standardised tests are considered according to the university's current policies; applicants should check the university admissions pages for guidance on test submission.
• Applicants may strengthen their application with extracurricular experience relevant to security (coding clubs, robotics, cyber competitions, internships) and a clear statement of interest describing career goals.

Career prospects

Graduates of Security Science and Technology move into technical and policy roles across the public and private sectors. The curriculum emphasises practical skills and project work that employers seek in entry-level hires.

• Technical roles: cybersecurity analyst, security engineer, penetration tester/ethical hacker, malware analyst, digital forensics examiner, incident responder.
• Engineering and development: secure software developer, systems architect, embedded systems security engineer.
• Policy, management and advisory roles: risk manager, compliance analyst, security consultant, privacy officer and analyst roles in government or corporate security teams.
• Further study and research: graduates may progress to master's degrees in cybersecurity, computer science, information assurance or related research programmes.
• Employers include technology companies, financial services, defence and intelligence agencies, consulting firms, healthcare organisations and critical infrastructure operators.

Why study at Syracuse University

Syracuse offers a multidisciplinary environment that connects technical teaching with public policy and organisational perspectives on security. The university provides hands-on lab spaces, project courses and industry partnerships that help translate classroom learning into workplace skills.

• Interdisciplinary approach: students benefit from courses and faculty across computing, engineering and public policy disciplines.
• Practical learning: dedicated labs, capstones and opportunities for internships or co-curricular competitions give practical experience in real-world scenarios.
• Career support and networks: Syracuse’s career services, employer engagement and alumni network help students secure internships and graduate roles in both industry and government.
• Location and community: a residential campus with active student organisations, technical clubs and research activity provides peer learning and professional development opportunities.