Chapman University

What you'll study

This programme combines core computer science theory with applied courses and laboratory experience. Students build fluency in programming, software design and systems thinking while also studying the mathematical foundations required for rigorous problem solving.

• Core programming and software engineering: introductory and advanced programming, data structures and algorithms, software engineering, version control and testing methodologies.
• Systems and architecture: computer architecture, operating systems, networking and concurrent/distributed systems.
• Data, AI and database systems: databases and SQL, data management, introductory machine learning and data analytics.
• Applications and development: web development, mobile application development, human–computer interaction and user interface design.
• Mathematics and foundations: calculus, discrete mathematics, linear algebra and probability and statistics tailored for computing.
• Security and professional practice: introductory cybersecurity, ethical issues in computing, project management and software lifecycle topics.
• Capstone and experiential learning: a senior capstone or practicum project, lab courses with substantial programming work, and internship or industry placement opportunities to apply skills to real projects.

Structure

The degree is generally completed over four years and mixes required core modules with electives that allow students to specialise in areas such as artificial intelligence, cybersecurity, systems programming or full‑stack development. Small class sizes and lab sessions emphasise hands‑on problem solving, and students are encouraged to take part in undergraduate research, interdisciplinary electives and industry internships.

Entry requirements

Admission is based on a combination of academic achievement and readiness for a computing curriculum. Typical applicants will have completed secondary school with strong performance in mathematics and science and coursework that demonstrates quantitative and problem‑solving ability.

• Successful completion of high‑school or equivalent secondary education with evidence of strong achievement in mathematics.
• Preparatory coursework or experience in programming is desirable; applicants who do not have prior programming experience may be admitted but should be prepared to undertake preparatory modules.
• International applicants must demonstrate equivalency of qualifications and English language proficiency through an accepted test or qualification if English is not their first language.
• Admission decisions consider academic records, letters of recommendation, personal statements and any relevant extracurricular or work experience such as coding projects, clubs or internships.

Career prospects

Graduates are equipped for a wide range of technical roles in industry and public sectors, or for continued study at graduate level. The applied focus and practical experience make graduates attractive to employers looking for job‑ready computing professionals.

• Software developer / software engineer
• Web and mobile application developer
• Systems engineer and infrastructure specialist
• Data analyst or entry‑level data scientist
• Cybersecurity analyst / information security specialist
• DevOps engineer and cloud technician
• Technical consultant, product support or QA engineer
• Further academic study: master’s degrees in computer science, data science, artificial intelligence or related fields

Why study at Chapman University

Chapman University’s computer science programmes are offered through a college that emphasises close faculty interaction, project‑based learning and interdisciplinary opportunities. The university’s location in Southern California provides proximity to a diverse technology economy with opportunities in software, entertainment technology, startups and established firms.

• Hands‑on learning: lab classes, capstone projects and internship pathways give students practical experience building deployable systems.
• Small classes and faculty access: undergraduates benefit from smaller class sizes and mentorship from faculty active in teaching and applied research.
• Industry connections: relationships with regional employers and a strong career services function help students secure internships and entry‑level roles.
• Interdisciplinary options: students can combine computing studies with minors or electives across business, media arts, sciences and humanities to tailor their skills to sectors such as entertainment, health or entrepreneurship.