Utah Builds Its Next Tech Cycle Around Chips, Drones and Nuclear Energy

Key Takeaways

• Utah’s technology economy is expanding from software into capital-intensive industries such as semiconductors, defense, energy and advanced manufacturing.
• Texas Instruments, Valar Atomics and Neros Technologies illustrate how physical infrastructure and specialized engineering are reshaping the state’s business landscape.
• The transition could create durable, well-paid employment, but it also raises the stakes for workforce development, energy capacity and industrial financing.

Utah built much of its modern technology reputation on software. SaaS companies, cloud computing ventures and startups launched with relatively modest physical infrastructure helped turn Silicon Slopes into a recognized business hub. Now the state’s next technology cycle is taking a more tangible form.

According to KSL.com, Utah is seeing growth across aerospace and defense, semiconductors, advanced manufacturing, energy, quantum technology and life sciences. These sectors still depend heavily on software, of course. But they also require laboratories, fabrication plants, specialized equipment, production lines and considerably more capital than a typical cloud startup.

The employment base is already substantial. Data from the Utah Department of Workforce Services shows that advanced manufacturing employed 77,170 people in 2024, representing half of Utah’s manufacturing workforce. Average annual wages approached $86,980. Across Utah’s targeted industries, which include advanced manufacturing, aerospace and defense, life sciences, software and financial services, employment reached nearly 494,900 people and wages totaled $41.4 billion in 2024.

Those figures matter because deep tech changes the economic development equation. A software business can scale quickly without building a factory. Semiconductor and aerospace ventures generally cannot. They need suitable land, dependable electricity, water, technical training programs, supply networks and patient investment.

These constraints can also make successful industrial operations harder to relocate. Once a semiconductor fabrication plant or advanced production campus develops a trained workforce and supplier base, it tends to form deeper regional roots than a business composed mainly of distributed software teams.

Texas Instruments is the clearest example. Its Lehi semiconductor expansion forms part of a planned investment exceeding $60 billion across seven U.S. fabs, with more than 60,000 jobs expected to be supported nationally. The Commerce Department awarded Texas Instruments up to $1.6 billion under the CHIPS and Science Act for semiconductor facilities in Texas and Utah. The Business Download has also documented the role of Texas Instruments in the domestic chip manufacturing push centered partly in Lehi.

Semiconductors represent just one sector in this broader industrial shift. Valar Atomics completed a zero-power fueled criticality demonstration for its Ward 250 reactor in Emery County in 2026, giving Utah a visible position in the emerging advanced nuclear-energy ecosystem. Defense-drone manufacturers such as Neros Technologies add another layer, connecting Utah’s engineering talent with growing demand for lower-cost autonomous systems.

Why is this happening now? Federal industrial policy is part of the answer. The CHIPS and Science Act of 2022 supports domestic semiconductor capacity, while national-security concerns have increased interest in resilient supply chains, defense manufacturing and energy infrastructure. At the same time, artificial intelligence and automation are pulling digital technology deeper into factories.

That combination is often described as Industry 4.0. In practical terms, it means connected machinery, industrial data, robotics and AI operating inside physical production environments. Utah’s software workforce therefore remains relevant. The opportunity is not to replace software with manufacturing, but to combine code with hardware, materials science and production expertise.

Still, capital presents a tougher test. Deep-tech businesses frequently face longer development timelines, regulatory reviews and expensive prototyping. Traditional venture financing, often structured around rapid software growth, may not suit every semiconductor, nuclear or aerospace project. Utah’s investors and public institutions will need financing models that reflect those longer cycles.

Talent could become another bottleneck. The state will need more electrical engineers, machinists, technicians, nuclear specialists, materials scientists and production managers. Universities, technical colleges and employers can help by aligning programs with actual facility requirements, including apprenticeships and equipment-based training.

Utah is not leaving Silicon Slopes behind. It is adding factories, reactors, drones and laboratories to the software foundation already in place. If infrastructure and workforce investment keep pace, the result could be a broader technology economy, one measured not only in subscriptions and cloud workloads, but also in chips produced, systems manufactured and energy generated.