Widener University

What you'll study

This programme blends core engineering fundamentals with specialised courses in sensing, actuation, control and embedded computing. Early years focus on mathematics (calculus, linear algebra, differential equations), physics and foundational engineering topics such as statics, dynamics and materials. As you advance you study modules that typically include:

• Electric circuits and electronics – circuit analysis, analog and digital electronics, power electronics fundamentals.
• Programming and embedded systems – C/C++, microcontrollers, real-time systems, and Python for automation.
• Control systems and signals – feedback control, PID design, system modelling and signal processing basics.
• Robotics and automation – kinematics, robot programming, sensors and perception, industrial automation and PLCs.
• Mechanical systems and design – machine design, CAD/CAM, mechatronic integration, sensors and actuators.
• Manufacturing and systems engineering – production processes, systems integration, quality and reliability.
• Laboratory and hands-on projects – electronics, instrumentation, control labs, robotics labs and multidisciplinary team projects.

The degree culminates in a capstone senior design project where multidisciplinary teams conceive, design, build and test a working automated or robotic system. Throughout the programme students gain practical experience with industry-relevant tools such as CAD software, microcontroller platforms, robotics arms, PLCs and data acquisition systems.

Entry requirements

Applicants should hold a secondary-school qualification with strong preparation in mathematics and science. Typical offers expect:

• A strong background in mathematics (algebra and precalculus; calculus recommended) and physics.
• High achievement across science and mathematics subjects; successful applicants often have taken advanced or college-preparatory courses where available.
• Evidence of practical aptitude or interest in engineering is advantageous — for example school projects, personal programming/electronics work, robotics club participation or related extracurriculars.
• International applicants must demonstrate English language proficiency through recognised tests or approved alternatives.

Admission decisions consider the whole application, including academic record, recommendation(s), personal statement and any relevant experience. Prospective students should consult Widener admissions for specific entry thresholds and documentation requirements.

Career prospects

Graduates enter a broad job market where mechanical, electrical and software skills meet. Typical roles include:

• Automation engineer or controls engineer – designing and commissioning automated production systems.
• Robotics engineer or integrator – developing robotic solutions for manufacturing, logistics or service applications.
• Embedded systems or firmware engineer – developing control software for devices and machines.
• Manufacturing or process engineer – improving production efficiency, quality and reliability.
• Systems engineer or applications engineer – specifying and deploying integrated mechatronic solutions for clients.

Graduates also pursue postgraduate study (MSc/MEng) in robotics, control systems or related fields, or move into research and development, product design, and entrepreneurial ventures in automation technologies. Hands-on experience gained through labs, projects and co‑op/internships makes graduates attractive to employers in aerospace, automotive, medical devices, consumer products and industrial automation sectors.

Why study at Widener University

Widener offers a studio- and lab-oriented learning environment with small class sizes and close faculty mentorship. Engineering programmes emphasise experiential learning — students have access to dedicated mechatronics and robotics labs, hands-on prototyping equipment, and multidisciplinary project courses. The university’s longstanding cooperative education and internship partnerships with regional and national employers provide practical work placements that reinforce classroom learning.

Widener’s engineering curriculum is designed to meet professional standards and to prepare students for licensure or further study. The combination of applied labs, team-based design experiences and industry connections helps graduates move quickly into technical roles in automation and robotics.