University of Northern Colorado

What you'll study

The programme combines foundational mathematics and science with engineering and computing courses. Students take a mixture of lecture courses and laboratory work that covers both hardware and software aspects of modern computing systems.

• Mathematics and basic sciences: calculus sequence, differential equations, linear algebra and probability/statistics, and physics courses supporting circuit and signal understanding.
• Core engineering: circuit analysis, electronic devices, signals and systems, and control fundamentals.
• Computer engineering and computing: digital logic and design, computer architecture, microprocessors and embedded systems, operating systems, data structures and algorithms, and computer networks.
• Software and hardware integration: firmware development, hardware description languages (HDLs), printed circuit board (PCB) design basics and system-level integration.
• Laboratory and hands-on work: regular lab courses supporting circuits, digital design, microcontroller/FPGA development and system testing.
• Design experience: a senior capstone or design sequence where students complete team-based projects that integrate hardware and software to solve real problems.
• Electives and specialisations: options to take electives in areas such as embedded systems, robotics, cybersecurity, wireless communications, signal processing or advanced software topics.
• Professional development: courses and activities that emphasise engineering ethics, technical communication and project management; opportunities for internships and undergraduate research.

Entry requirements

Applicants should hold an accredited secondary school qualification with strong preparation in mathematics and science. Recommended high-school preparation includes calculus (or precalculus with demonstrated readiness for first-year calculus), physics, and a grounding in algebra and geometry. Familiarity with basic programming is beneficial but not always required.

• Submission of official secondary-school transcripts; international applicants submit equivalent documentation.
• Evidence of readiness for university-level mathematics and science; placement testing or transfer credit may be used to determine course starting points.
• English language proficiency for applicants whose first language is not English (accepted tests or institutional equivalents as part of the university’s policy).
• Recommended: participation in STEM extracurriculars, summer programmes, or work experience in computing or electronics to strengthen an application.

Career prospects

Graduates of the computer engineering degree are prepared for a wide range of technical roles that require both hardware and software skills. Common career paths include:

• Embedded systems engineer or firmware developer, building software that runs on microcontrollers and SoCs.
• Hardware design or verification engineer, working on digital logic, FPGAs or ASIC front-end development.
• Systems or application software engineer, developing operating systems, device drivers or performance-critical applications.
• Network and communications engineer, specialising in wired and wireless systems.
• Robotics and automation engineer, integrating sensors, actuators and control software.
• Test, validation and quality assurance roles in electronics and computing firms.
• Paths to further study in electrical/computer engineering, computer science or related fields, including Master’s and doctoral programmes.

Why study at University of Northern Colorado

The University of Northern Colorado offers a student-focused learning environment with opportunities for hands-on laboratory experience and close faculty mentorship. The programme emphasises experiential learning through lab courses, team design projects and internship pathways that connect students with regional employers and research activities.

• Smaller class sizes and accessible faculty who supervise senior projects and undergraduate research.
• Practical, lab-based curriculum designed to help students develop both theoretical knowledge and applied engineering skills.
• Opportunities for collaborative, multidisciplinary projects and for engagement with professional societies and student technical clubs.
• Location advantages for internships and industry connections in Colorado’s growing tech and engineering sectors.
• Support services including academic advising, career services and tutoring to help students transition from study to professional roles.