Widener University

What you'll study

The programme delivers an interdisciplinary curriculum that integrates mechanics, electronics, control theory, embedded systems and software for automation. Core coursework commonly covers subjects such as advanced control systems, mechatronic system design, sensors and actuators, signal processing, industrial robotics, embedded real‑time systems and modelling and simulation. Students typically follow a mix of lectures and laboratory courses using industry‑standard tools (PLC programming, motion controllers, ROS, CAD/CAM and simulation packages) and work with physical test rigs and robotic manipulators.

Program structure usually offers options for a practicum, a capstone design project or a research/thesis pathway. The capstone emphasizes multidisciplinary team projects that apply systems integration, hardware/software co‑design and project management to solve real industrial problems. Elective choices enable deeper study in areas such as machine vision, autonomous systems, human–robot interaction, industrial networking and cyber‑physical systems.

Entry requirements

Applicants are expected to hold a bachelor’s degree in engineering, computer science, physics or a closely related technical discipline. Admissions typically consider academic transcripts, a statement of purpose outlining professional and research goals, and a current résumé or CV. Some background in calculus, linear algebra, basic circuits/electronics and programming is normally required; applicants lacking specific prerequisites may be asked to complete bridging coursework.

International applicants must demonstrate English language proficiency through an approved test or equivalent. Admissions may also request letters of recommendation and will consider prior relevant work experience, especially for candidates from industry seeking an applied master’s degree. GRE requirements vary and applicants should consult the programme for current testing policy.

Career prospects

Graduates enter a range of roles across manufacturing, automation, robotics, aerospace, automotive, biomedical devices and supply‑chain automation. Typical job titles include automation engineer, robotics systems engineer, controls engineer, mechatronics engineer, systems integrator, test and validation engineer, and controls software developer. The practical, lab‑based focus prepares students for hands‑on roles commissioning and maintaining automated equipment as well as for positions in design, systems engineering and technical project leadership.

Some alumni pursue further research or doctoral study in robotics and allied fields, while others move into industry leadership, product development or consulting where multidisciplinary engineering skills are valued.

Why study at Widener University

Widener offers a small‑class environment with direct access to faculty who have both academic and industry experience in automation and robotics. The programme emphasises applied learning through dedicated labs and project work that mirror industrial practice, providing opportunities to work with PLCs, motion control systems, robotic arms and embedded platforms.

The university's engineering school maintains partnerships with regional manufacturers and technology companies, helping students access applied projects, internships and professional networks. The programme’s flexible pathways — capstone, practicum or thesis — allow candidates to tailor their studies to professional goals, whether entering industry or preparing for further research.