The NNME South Node, led by the University of Texas at Austin and eligible for up to $20 million over five years from the National Science Foundation, the U.S. Commerce Department, and the SEMI Foundation, spans nine states from New Mexico to Florida. Within this framework, UT Dallas will expand an existing North Texas consortium of community colleges to standardize and scale semiconductor technician training, while simultaneously leading employer engagement efforts across the entire southern region. The existing consortium already links UT Dallas with Collin College, Dallas College, Grayson College, Tarrant County College, and Oklahoma’s Murray State College, with UT Arlington acting as an independent evaluator of program outcomes.

To understand why this initiative is so urgently needed, one must look inside a modern fab. Semiconductor manufacturing demands an almost surreal level of precision: silicon wafers undergo hundreds of process steps, including photolithography that prints features measuring just a few nanometers, plasma etching that sculpts atomic-scale trenches, and chemical vapor deposition that lays down ultra-pure films one atomic layer at a time. These operations occur in cleanrooms where a single speck of dust can destroy a chip worth thousands of dollars. The equipment that executes these steps—immersion lithography scanners, high-vacuum chambers, ion implanters—requires constant monitoring, calibration, and troubleshooting. The technicians who perform this work need a unique hybrid of skills: they must read schematics and process recipes, diagnose vacuum leaks and RF power anomalies, handle hazardous chemicals safely, and interpret data from metrology tools that measure film thickness in angstroms. The Semiconductor Industry Association projects that 115,000 new jobs will open across the U.S. semiconductor sector by 2030, and Dr. Ted Moise, director of UT Dallas’s North Texas Semiconductor Institute (NTxSI), estimates that roughly 29,000 of these positions will be located within the NNME South footprint alone. A large fraction are technician roles that require certificates or two-year associate degrees—not necessarily four-year engineering diplomas—yet demand a depth of technical acumen that community college curricula have not traditionally provided.

The NTxSI has been tackling this misalignment since its launch in 2023 with support from the U.S. Department of Education. One of the institute’s first challenges, according to Assistant Director Dr. Eden Zielinski, was overcoming what she calls the “invisibility of the industry.” Many career starters, and even seasoned workers in adjacent fields, simply do not know that semiconductor technician jobs exist, much less that they offer competitive salaries and clear advancement pathways without a bachelor’s degree. Through a sustained campaign of job fairs, school visits, and public recruiting events, NTxSI reached nearly 60,000 prospective students over three years, a direct countermeasure to this awareness gap. At the same time, the institute worked with industry partners—including Texas Instruments, GlobalWafers America, Coherent Corp., and FormFactor, all of which are pouring billions into new North Texas facilities—to map precise skill requirements onto community college certificate programs. The result was a retooled curriculum that covers vacuum technology, process control, statistical process monitoring, and hands-on equipment maintenance, often using donated or emulated fab tools.

The numbers already show momentum. Enrollment in advanced manufacturing programs across the consortium’s community colleges surged from a few hundred students in 2023 to over a thousand by 2026. More than 300 students have now earned Level 1 and Level 2 certifications or Associate of Applied Science degrees and are employed at manufacturing firms throughout North Texas, some fielding multiple job offers. The new NNME designation will allow UT Dallas to propagate this model far beyond the Dallas-Fort Worth metroplex, coordinating internships, aligning curricula, and sharing best practices with institutions across the nine-state region. The university also recently launched a dedicated scholarship program to attract more students into semiconductor engineering pathways, complementing the technician-focused pipeline.

Central to this expansion is a deliberate feedback loop between the cleanroom floor and the classroom. Technicians trained under the revamped programs learn to interpret the subtle signatures of a misbehaving etcher—a flicker in reflected power that hints at a failing match network, a drift in chamber pressure that suggests a leak in the gas delivery line—skills that are usually taught only through years of on-the-job experience. By embedding these diagnostic competencies into the certificate programs, the consortium aims to make graduates productive from day one, a crucial advantage for manufacturers racing to bring new fabs online.

The regional employer engagement role assigned to UT Dallas will ensure that as the NNME South Node evolves, its training pathways remain tightly coupled to real-time industry needs. This is not a static curriculum but a living system that adjusts to shifting technology nodes, new materials such as gallium nitride and silicon carbide for power electronics, and the growing integration of AI-driven process control in fab operations. As Dr. Moise emphasizes, the reshoring of the semiconductor industry and the acceleration of artificial intelligence are converging to create an unprecedented demand for advanced manufacturing expertise. The NNME South Node, with UT Dallas at its operational center for technician development, represents a strategic attempt to ensure that America’s fab-building boom does not stall for lack of the hands and minds that keep those billion-dollar factories running. In an industry where a single tool can cost $10 million and a single wafer can carry 100 billion transistors, the human infrastructure is finally receiving the same rigorous attention as the silicon itself.

Subject of Research: Semiconductor workforce development and microelectronics technician training
Article Title: The Great Chipmaker Scramble: How Texas Is Building an Army of Semiconductor Technicians
News Publication Date:
Web References: https://nnme.org/nnme-south/ , https://ntxsi.utdallas.edu/ , https://ntxsi.utdallas.edu/biography-dr-thoedore-moise/ , https://news.utdallas.edu/students-teaching/new-semiconductor-scholarships-2025/
References: Semiconductor Industry Association workforce projection; National Network for Microelectronics Education
Image Credits: The University of Texas at Dallas
Keywords: Semiconductors, microelectronics, technician training, workforce development, NNME South, cleanroom, advanced manufacturing, North Texas Semiconductor Institute, UT Dallas, photolithography

Funded by the U.S. National Science Foundation’s Directorate for Technology, Innovation and Partnerships (NSF TIP) in collaboration with the U.S. Department of Commerce, the NNME initiative represents a nationwide response to the escalating demand for highly skilled semiconductor professionals. As semiconductor technology drives innovation in virtually every modern industry—from consumer electronics to automotive and defense systems—the need for a robust, well-educated workforce has become paramount. Boise State’s role as the regional hub means it will lead efforts in shaping educational curricula, fostering industry partnerships, and coordinating workforce development programs to cultivate a pipeline of talent ready for semiconductor careers.

The semiconductor industry forecasts a staggering shortfall of up to one million workers by 2030, particularly in manufacturing, engineering, and technical support sectors. This workforce gap presents a formidable barrier to the industry’s continued expansion and U.S. leadership in microelectronics technology. Regional nodes like the one led by Boise State are designed to provide localized solutions tailored to the unique needs of their respective geographies, bridging the divide between academic training and employer requirements. The Pacific Intermountain Network will integrate K-12 outreach to cultivate early interest, community college programs for foundational skills, and university-level advanced technical education to produce highly capable professionals.

Boise State University’s selection was underpinned by its robust engineering programs, cutting-edge laboratory facilities, and established relationships with semiconductor manufacturers and technology enterprises throughout the region. These assets empower the university to implement hands-on learning experiences utilizing industry-standard equipment, an indispensable component of microelectronics education. Additionally, the program aims to facilitate internship opportunities that immerse students in real-world semiconductor production environments, thus enhancing their practical skills and employability upon graduation.

This initiative underscores the importance of accessible and inclusive education pathways that accommodate students from diverse backgrounds. The NNME program’s holistic approach addresses barriers to entry and retention in STEM fields, ensuring that equal opportunities exist for underrepresented populations within the semiconductor workforce. By fostering collaboration among educational institutions, industry, and workforce organizations, the network seeks to build a sustainable ecosystem where innovation and talent development reinforce one another.

Jennifer Ellis, Director of the NNME, emphasized the coalition’s unique ability to unify stakeholders across sectors to form a “talent engine” capable of responding to the semiconductor industry’s dynamic labor needs. Meanwhile, Shari Liss, Vice President of Workforce Development at SEMI, articulated the strategic significance of establishing Regional Nodes as foundational elements of the national microelectronics workforce infrastructure. These nodes serve as critical points of convergence, linking national priorities with regional execution.

Boise State’s commitment extends beyond educational programming; it aligns with broader regional economic development goals by attracting semiconductor industry investment and enhancing technological innovation capacity. As microelectronics continues to infiltrate emerging fields like artificial intelligence, quantum computing, and advanced sensing, an adept workforce becomes not only a driver of economic growth but also a safeguard for technological sovereignty. The university’s increased focus on doctoral and master’s programs in engineering signifies a strengthening of research capabilities that complement workforce training initiatives.

The strategic collaboration between NSF TIP, the U.S. Department of Commerce, the NNME, and the SEMI Foundation illustrates a comprehensive approach to reviving American competitiveness in microelectronics. The SEMI Foundation’s role in workforce development—working across companies and institutions to streamline career pathways—complements Boise State’s educational leadership. Together, these efforts aim to address the semiconductor talent gap while supporting inclusive economic opportunity and sustainable industry growth.

The Pacific Intermountain Network for Education in Semiconductors is more than a regional initiative; it is a critical node within a national fabric dedicated to securing the future of microelectronics innovation. By integrating education, workforce preparedness, and industry engagement, Boise State University exemplifies how academic institutions can serve as catalysts for resolving complex workforce challenges. Their leadership reinforces the emerging paradigm that meeting 21st-century technological demands requires coordinated, multi-sector collaboration and investment in human capital.

For those seeking detailed information about Boise State’s efforts within the NNME framework or to explore opportunities in semiconductor education and workforce development, resources are available at boisestate.edu/microelectronics. The university’s proactive stance ensures that the Pacific Intermountain region will remain an influential contributor to the national semiconductor workforce ecosystem, helping to drive continued advancements in technology and economic vitality.

Subject of Research: Semiconductor workforce development and microelectronics education
Article Title: Boise State University Named Lead Institution for Pacific Intermountain Semiconductor Education Network
News Publication Date: Not specified in the source content
Web References: boisestate.edu/microelectronics, nsf.gov/tip/latest
References: National Science Foundation Award No. OTA-25Z2966
Image Credits: Boise State University
Keywords: semiconductor education, workforce development, microelectronics, semiconductor industry, STEM education, NSF TIP, National Network for Microelectronics Education, SEMI Foundation, semiconductor workforce shortage, Pacific Intermountain region