Bridging Applied Learning and Workforce Innovation: UNLV’s BA in Engineering Technology

Exploring how UNLV’s Bachelor in Arts in Engineering Technology integrates applied curriculum, work-based learning, and microlearning to address regional workforce needs and national CTE priorities.

Introduction

Across the country, universities are reevaluating traditional engineering degrees in response to national policy goals outlined in Perkins V, the federal legislation that guides career and technical education, and the Association for Career and Technical Education’s (ACTE, 2018) High-Quality CTE Framework. This movement emphasizes hands-on learning, work-based experiences, and greater alignment with industry. At the University of Nevada, Las Vegas (UNLV), engineering education is evolving to meet the demands of a rapidly changing workforce.

UNLV’s new Bachelor of Arts in Engineering Technology reflects what modern career and technical education (CTE) is all about—applied, industry-focused, and grounded in the practical realities of Nevada’s job market (UNLV College of Engineering, 2025). The program bridges the gap between classroom instruction and technical work that powers automation, advanced manufacturing, and renewable energy industries.

Who the Program Serves

UNLV’s Engineering Technology program is designed for students seeking an undergraduate degree focused on translating ideas from theory into practice. It serves learners drawn to automation, advanced manufacturing, and system integration—the industries driving Nevada’s expanding technology economy (UNLV College of Engineering, 2025). Employers help shape coursework, ensuring graduates arrive ready to contribute from day one.

UNLV mirrors the diversity and complexity of Southern Nevada, and that breadth of perspectives strengthens its research culture and engineering innovation. As an R1 institution, UNLV is positioned to expand the engineering pipeline—preparing graduates who can navigate traditional analytical work and the interdisciplinary demands of automation, AI, and modern production systems.

What the Program Offers

UNLV’s Bachelor of Arts in Engineering Technology provides an applied, industry-focused curriculum preparing students to work across automation, mechatronics, and AI-enabled systems, shaping what many describe as the Fifth Industrial Revolution. Students move quickly from theory to practice through labs and employer-guided projects, using robotics, sensors, control systems, and AI tools. This approach meets a critical workforce need in Nevada, where advanced manufacturing, logistics, and clean-energy sectors require professionals who understand how technologies are designed, built, integrated, and maintained.

AI is embedded throughout the coursework in data-driven simulations, machine-learning diagnostics, and real-time troubleshooting, giving students practical experience with intelligent systems. By combining analytical reasoning with hands-on building and maintenance, the program prepares graduates to bridge design and implementation (UNLV College of Engineering, 2025).

Where and When Innovation Happens

Launched in 2024 within UNLV’s College of Engineering, the program supports the region’s growing investment in renewable energy, logistics, and advanced manufacturing. Located in Las Vegas—a city expanding its economy beyond hospitality—the degree was developed in collaboration with local industry leaders. Students participate in three required internships, site visits, and employer-led projects that immerse them in active industrial environments (Faris, 2025).

Why This Program Matters

The program directly addresses the skills gap identified by the Nevada Governor’s Office of Workforce Innovation (GOWINN, 2024) and the UNLV’s Center for Business and Economic Research (CBER, 2025). Both agencies forecast strong demand for professionals who can operate, maintain, and innovate complex systems in automation, energy, and information technology.

Dr. Waleed Faris, a faculty-in-residence who helped design the program, noted, “Our goal is to train students who can move seamlessly from theory to application. They need to know how things work—and how to make them work in real-world conditions” (Faris, 2025).

How UNLV’s Model Differs

Curriculum Design and Pedagogy

Every course embeds laboratory practice and team-based projects as core instructional design elements. Students model, build, and test systems that replicate industrial environments, using simulation-based learning to solve problems they are likely to encounter on the job. AI and automation are integrated across instruction, supported by UNLV’s R1 research infrastructure and engineering facilities. This design shifts instruction from lecture-based teaching toward project-based learning, consistent with research suggesting active, interdisciplinary learning better prepares students for sustainability and technological change (Mitchell & Tilley, 2024; Mitchell et al., 2019). Faculty coach alongside students, modeling how engineers think and troubleshoot—a partnership mirroring workplace collaboration.

Work-Based Learning

Few engineering programs nationwide require multiple internships. UNLV makes work-based learning a graduation requirement. Students complete three internships and employer-driven projects that reflect the collaborative structure of today’s industry. “Our industry partners do not just advise us—they are part of the classroom. Their input helps us align course outcomes with the technical competencies employers expect” (Faris, 2025).

Applied Practices and Flexibility

Faculty continue refining courses and exploring microlearning options, including microcredentials for working professionals. By modularizing skills—such as robotics programming or AI diagnostics—the program allows incumbent workers to upskill without committing to a full degree. “This design reflects the program’s intent to bridge the gap between theoretical engineering and the daily technical work that industry depends on” (Faris, 2025). The goal is a graduate who can implement and sustain technology systems, communicate results, and lead teams.

Insights From the Field

Dr. Faris emphasized that instructional delivery differs from traditional research-oriented models. “This program was created in response to the needs of the local industry,” he said. “We are preparing graduates who can enter the workforce ready to contribute on day one, while still having the analytical foundation to adapt as technology evolves” (Faris, 2025).

These insights reflect global trends in engineering education. Programs are adopting project-based, sustainability-driven learning approaches and integrating artificial intelligence, data analytics, and virtual-reality tools (MIT, 2018; Mitchell et al., 2019). UNLV aligns its local innovation agenda with this global reimagining of how engineers learn and work.

Building Workforce Connections

The program balances classroom theory, lab-based application, and work-based learning. Students engage with regional employers on applied research, site visits, and automation projects that use AI to optimize production.

“Our state needs graduates who can move ideas from the whiteboard to the worksite,” Dr. Faris said. “This program is structured to make that transition possible” (Faris, 2025).

To deliver such a program, the university continues investing in modern laboratories and equipment. Industry and federal partners are contributing resources to ensure instruction remains aligned with current technology and workforce needs.

A Program in Motion

The Engineering Technology program continues to evolve in response to Nevada’s changing economy. Faculty are exploring partnerships to connect microlearning certificates with degree pathways, supporting lifelong learning opportunities for technicians and engineers. This adaptability positions UNLV as a leader in postsecondary CTE innovation, merging the depth of university study with the agility of workforce training.

A Pathway for Nevada’s Future

Nevada’s industries and educators are closely watching the program’s early implementation. With strong employer interest in graduates who can bridge design and implementation, UNLV’s model represents a strategic response to national efforts to connect higher education and industry. As early cohorts progress through the curriculum, the community is eager to see how these applied changes support career readiness and statewide innovation goals.