Clarkson University

What you'll study

This programme blends core systems engineering principles with human-systems and intelligent-systems topics. You study systems architecture and lifecycle processes alongside human-centred design and cognitive engineering to understand how people interact with complex technical systems. Typical modules and subject areas include:

• Systems Engineering Fundamentals – systems lifecycle, requirements engineering, verification and validation, reliability and risk.
• Human Factors and Human Systems Integration – human performance, workload, ergonomics, user-centred design methods and usability evaluation.
• Intelligent Systems and AI for Systems – machine learning fundamentals, sensor fusion, autonomous system concepts and human–machine teaming.
• Modelling, Simulation and Decision Analysis – model-based systems engineering, simulation techniques, optimisation and decision support for socio-technical systems.
• Interaction and Interface Design – human–computer interaction, interface prototyping, testing and metrics for complex systems.
• Systems Architecture and Integration – architecture frameworks, integration of hardware/software/people, interoperability and system-of-systems concepts.
• Ethics, Safety and Regulatory Considerations – safety analysis, human-centred risk assessment and responsible use of autonomous technologies.

The degree typically involves a combination of coursework and a culminating experience such as a research thesis, a project-based capstone with an industry or campus partner, or a practicum that applies methods to an applied human-systems engineering problem.

Entry requirements

Applicants are expected to hold a bachelor's degree in engineering, computer science, mathematics, physics or a closely related field from an accredited institution. Competitive applicants normally present:

• A strong academic record at undergraduate level.
• A CV or resume outlining relevant academic, research or professional experience.
• Letters of recommendation that speak to technical ability and potential for graduate study.
• A statement of purpose describing academic interests and career goals, and how the programme aligns with them.
• For applicants whose first language is not English, proof of English proficiency is required (accepted tests and minimum scores are set by the university).

GRE requirements, prerequisite coursework and any professional experience expectations are determined by the department; applicants with non‑traditional backgrounds but relevant experience may be considered and can often make up prerequisites by completing preparatory coursework.

Career prospects

Graduates are prepared for roles that require systems-level thinking alongside expertise in human interaction with technology. Common career paths include:

• Systems engineer or systems architect working on complex engineered systems.
• Human factors / human-systems integration engineer in aerospace, defence, automotive or industrial automation.
• Usability and user-experience engineer for safety-critical or embedded systems.
• Controls and autonomy engineer focusing on human–machine teaming and intelligent agents.
• Systems modeller or simulation engineer supporting training, operations analysis and decision support.
• Research and development positions in industry or government laboratories, or progression to doctoral study.

Graduates find roles in sectors such as aerospace and defence, healthcare technology, automotive and mobility, energy and utilities, and consulting firms that specialise in systems engineering and human factors.

Why study at Clarkson University

Clarkson provides an applied, interdisciplinary environment that combines engineering fundamentals with hands-on opportunities. The programme benefits from small class sizes, close faculty mentorship and laboratory facilities that support experimentation in human factors, robotics and intelligent systems. Students often collaborate on project-based work with industry partners, giving practical experience that complements theoretical study. The university’s emphasis on experiential learning, coupled with connections to regional and national employers, helps graduates move into technical and leadership roles in sectors that depend on safe, effective human–technology integration.