Robotics

Robotics is inherently interdisciplinary, bringing together sensing, computation, control, hardware, and interaction with both the physical and human world. Rather than focusing on a single engineering specialty, Nebraska Robotics prepares students to understand how these components work together within complex systems. This broad, systems-based perspective is a deliberate strength of the program, giving students the versatility to solve challenges that span multiple technical domains.

At the same time, students develop expertise in areas that match their interests through formal concentrations such as Perception and Reasoning, Dynamics and Control, Hardware and Sensors, and Human-Robot Interaction. These concentrations are built into the curriculum using the technical electives and upper-level coursework already required for the degree, allowing students to gain recognized depth in a focused area without adding additional credits.

Nebraska Robotics also introduces advanced topics that have traditionally been reserved for graduate study, including robot kinematics, control, systems-level sensing, and hardware design. These concepts are intentionally structured for undergraduates, providing the mathematical and computational foundation needed to master them early in their academic careers.

By combining broad systems thinking with focused technical expertise, the program prepares graduates to approach challenges from multiple perspectives, collaborate across disciplines, and understand how decisions in one area affect an entire system. These are the skills increasingly sought by employers as robotics continues to transform industries around the world.

While Computer Science focuses on computation and software, Mechanical Engineering emphasizes physical systems and energy, and Electrical Engineering centers on electronics, signals, and power, robotics brings all of these disciplines together to solve a unique set of challenges.

At Nebraska, the robotics curriculum is built around the concept of embodied intelligence: designing machines that sense, think, act, and interact with the world to accomplish meaningful goals. This requires students to understand how computation, sensing, control, mechanics, and human interaction work together as an integrated system. In robotics, hardware and software are inseparable, and successful solutions depend on understanding the connections between them.

Because of this systems-driven approach, robotics is more than a specialization within Computer Science, Mechanical Engineering, or Electrical Engineering. It is a distinct discipline with its own foundations, methods, and real-world applications. Students learn to bridge traditional engineering boundaries, developing the technical and collaborative skills needed to create intelligent systems that can operate effectively in complex environments and make a meaningful impact across industries.

Majoring in Robotics challenges students to think critically, solve complex problems, and apply technical knowledge across multiple disciplines. Coursework combines mathematics, computing, engineering principles, and systems thinking, requiring students to move beyond theory and apply what they learn through programming, design, analysis, and hands-on projects.

Students regularly work with real-world systems where software, hardware, sensors, data, and control must function together. This means learning not only the underlying concepts, but also how to navigate the practical constraints and unexpected challenges that arise when developing and testing robotic systems.

The program’s rigor is measured by a student’s ability to master concepts, integrate knowledge from different fields, and apply that knowledge to solve meaningful problems. Rather than focusing solely on traditional exams, robotics courses emphasize critical thinking, technical depth, and the ability to translate ideas into working solutions, preparing graduates for the challenges of both industry and advanced study.

Robotics faculty bring world-class expertise and industry-relevant experience directly into the classroom. Recruited from leading national and international talent pools, they are actively engaged in advancing the field through research, innovation, and collaboration with industry partners. As a result, students learn from experts who are helping shape the future of robotics.

The program's strong research foundation enhances, rather than competes with, its industry focus. Faculty integrate emerging developments in areas such as perception, autonomy, control systems, hardware design, and human-robot interaction into courses and projects, ensuring students gain experience with the tools, technologies, and challenges driving today's robotics industry.

Students also benefit from opportunities to engage with industry through applied research projects, research partnerships, entrepreneurial initiatives, and real-world applications that address meaningful challenges. This close connection between research, innovation, and industry helps graduates enter the workforce with relevant technical skills and an understanding of how robotics technologies are developed and deployed in practice.

Nebraska Robotics graduates are prepared for a wide range of opportunities in industry, research, and graduate education. With a strong foundation in robotics, engineering, computing, and systems thinking, alumni launch careers in sectors such as aerospace, automotive, autonomous systems, defense, healthcare, and technology. Many also pursue advanced degrees at leading universities, building on the technical expertise and research experience gained during their undergraduate studies.