The rumble of construction in Taylor, Texas, echoes a transformation sweeping North America. Amid a vast industrial park, Samsung’s $17 billion semiconductor fabrication plant rises a testament to a renewed push for domestic chip production. This isn’t about flashier consumer gadgets; it’s about powering the industrial internet of things (IIoT) the sensors, controllers, and rugged computers driving factories, energy grids, and medical facilities. Spurred by the CHIPS and Science Act, state governments across the U.S. and Canada are funneling billions into incentives to bring chip manufacturing home, securing supply chains and fueling innovation. For Texas-based Corvalent, a leader in industrial computing, this shift is more than policy it’s a pivotal moment to redefine North American industry.
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A Policy Surge for Semiconductor Resilience
The 2020 semiconductor shortage exposed a glaring weakness: North America’s dependence on foreign chip production. Assembly lines halted, medical equipment deliveries lagged, and industrial automation faltered. Enacted in August 2022, the CHIPS and Science Act counters this vulnerability with a comprehensive strategy, blending federal grants, tax credits, and state-level incentives to bolster domestic manufacturing. States like Texas, Arizona, and New York are leading the charge. Texas leverages its Enterprise Fund and local grants to support Samsung’s Taylor fab, a linchpin for IIoT hardware. Ohio and Oregon offer property tax abatements to attract chipmakers, while New York backs GlobalFoundrie’s Malta expansion, serving automotive and industrial sectors.
Canada is equally ambitious. Ontario and Quebec are deploying R&D tax credits and the Strategic Innovation Fund to advance chip design and photonics. Programs like CMC Microsystems are fostering innovation in industrial automation, creating ecosystems where fabs, research hubs, and manufacturers like Corvalent collaborate. This isn’t just about building factories; it’s about forging resilient supply chains for industries critical to North America’s economic and security interests.
Industrial Computing’s Semiconductor Lifeline
At the heart of industrial computing lies a reliance on semiconductors not the bleeding-edge chips of AI data centers, but “legacy node” chips (28-90nm) that power microcontrollers and sensors in factory robots, oilfield equipment, and medical diagnostics. The global semiconductor market, projected to grow from $623 billion in 2025 to $1.07 trillion by 2035 at a 5.08% CAGR, is driven by Industry 4.0’s demand for connected devices. These chips are the backbone of IIoT, enabling smart manufacturing and production worldwide.
State incentives are aligning with this need. In Texas, partnerships between Samsung, GlobalFoundries, and industrial PC makers like Corvalent are shortening supply chains for rugged motherboards and embedded controllers. Upstate New York’s GlobalFoundries expansion, supported by state and federal funds, serves industrial clients with reliable chip supplies. In Canada, Ontario’s photonics and chip design hubs are fueling IoT module innovation for smart factories. These efforts ensure a steady flow of components tailored for industrial durability and performance.
Navigating a Complex Landscape
Yet, the path to a semiconductor resurgence is fraught with challenges. A critical shortage of skilled workers looms North America needs over 90,000 new technicians and engineers by 2030, per SEMI North America. The CHIPS Act’s push for domestic production has spurred alliances between academia, industry, and government to train this workforce, but the gap remains daunting. Universities like UT Austin, Arizona State, and McMaster are scaling up programs, yet demand outpaces supply.
Construction timelines pose another hurdle. Most new fabs, capital-intensive and complex, won’t be fully operational until 2026-2028. Environmental concerns, particularly water-intensive chipmaking in regions like Arizona, complicate permitting processes. Globally, Asia’s dominance led by TSMC and Samsung’s overseas operations sets a high bar. North American states and provinces must ensure incentives deliver sustainable economic gains, not just fleeting headlines.
Opportunities for Industrial Pioneers
For companies like Corvalent, these challenges pale against the possibilities. Localized supply chains slash lead times for critical components, vital for industrial PCs and embedded systems built for harsh environments. State-driven co-location programs, placing fabs near OEMs, spark R&D synergies. In Texas, the Austin-Taylor “semiconductor corridor” positions Corvalent as a hub for industrial computing innovation. This proximity accelerates development of IIoT-specific chips, from concept to deployment.
Edge computing, a pillar of IIoT, benefits profoundly. Nearby semiconductor R&D enables rapid testing and validation of chips for rugged applications crucial for industries like energy, where downtime costs millions, or healthcare, where reliability is paramount. As North American semiconductor clusters emerge, they support long-lifecycle hardware, aligning with Corvalent’s commitment to durable, Texas-made solutions. These clusters also foster compliance and traceability, meeting stringent regulatory demands in defense and medical sectors.
Building a Fabrication Backbone
The future looks promising. By 2030, North American fabs could meet 25% of industrial chip demand, up from 12% in 2020, per the Brookings Institution. Bipartisan state-federal partnerships are crafting a “fabrication backbone” for industrial and defense electronics. In Indiana, SK Hynix’s $3.87 billion semiconductor packaging plant at Purdue Research Park will create 800 high-wage jobs by 2030, producing high-bandwidth memory chips for AI and industrial applications. Purdue’s president, Mung Chiang, hailed it as a leap toward America’s AI leadership.
For industrial computing firms, this is a game-changer. Domestic chips offer reliability and regulatory compliance, critical for long-lifecycle systems. Corvalent, with its focus on robust, made-in-Texas solutions, is poised to leverage this shift, delivering systems that power smart factories, critical infrastructure, and beyond. As companies navigate the CHIPS Act’s geographical restrictions, new partnerships with domestic foundries will further streamline innovation, ensuring North America’s industrial sector remains competitive.
A Legacy in the Making
The cranes dotting Taylor’s skyline are more than a construction project they’re a symbol of North America’s resolve to reclaim its semiconductor prowess. From Texas to Ontario, state and provincial incentives are forging a new era for chip production, prioritizing not just consumer tech but the industrial systems that drive modern economies. The CHIPS Act, paired with regional investments, is building an ecosystem where supply chains are robust, innovation is swift, and companies like Corvalent thrive. As fabs come online, they’ll fuel a future where North American industry leads globally. For the engineers, technicians, and manufacturers shaping this landscape, this isn’t just a policy triumph it’s a legacy that will define the next decade.
Frequently Asked Questions
What is the CHIPS and Science Act and how does it support semiconductor manufacturing?
The CHIPS and Science Act, enacted in August 2022, is a comprehensive federal initiative designed to strengthen domestic semiconductor production through grants, tax credits, and state-level incentives. The act addresses supply chain vulnerabilities exposed during the 2020 semiconductor shortage by funding new fabrication plants and fostering partnerships between chipmakers, research institutions, and manufacturers. States like Texas, Arizona, Ohio, and New York are leveraging these federal funds alongside their own incentives to attract major semiconductor facilities that serve industrial, automotive, and defense sectors.
How do state semiconductor incentives benefit industrial computing and IIoT applications?
State incentives are driving the production of legacy node chips (28-90nm) that power industrial IoT devices, factory automation, medical equipment, and energy infrastructure. By bringing semiconductor fabrication closer to industrial computing manufacturers, these programs reduce lead times, enable faster R&D collaboration, and create localized supply chains for mission-critical components. Companies producing rugged industrial PCs and embedded systems gain access to reliable, domestically-sourced chips with better traceability and compliance for regulated industries like defense and healthcare.
What challenges does North America face in expanding domestic semiconductor production?
The semiconductor manufacturing expansion faces three major hurdles: a critical workforce shortage requiring over 90,000 new technicians and engineers by 2030, lengthy construction timelines with most new fabs not operational until 2026-2028, and environmental concerns particularly around water-intensive chipmaking processes. Additionally, North American producers must compete with Asia’s established semiconductor dominance while ensuring that state incentives deliver sustainable long-term economic benefits rather than short-term gains.
Disclaimer: The above helpful resources content contains personal opinions and experiences. The information provided is for general knowledge and does not constitute professional advice.
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Ready to elevate your mission-critical operations? From medical equipment to military systems, our USA-built Industrial Computing solutions deliver unmatched customizability, performance and longevity. Join industry leaders who trust Corvalent’s 30 years of innovation in industrial computing. Maximize profit and performance. Request a quote or technical information now!