The staff of The Fusion Report has participated in numerous fusion conferences (such as Seattle Fusion Week), webcasts, and had many conversations with industry leaders on the need for a “Fusion Ready” workforce. In a recent contributed article, “Building a Fusion-Ready Workforce: Why STEM and Trades Education Are Key to America’s Energy Future,” Dr. Michael Ponting, chief science officer at Peak Nano, Kieran Furlong CEO of Realta Fusion, and Dr. Saskia Mordijck, associate professor of Physics at the College of William & Mary looked deeper into the dynamics of this topic, which included:

• Projected demand for fusion jobs from researchers, engineers, and skilled tradespeople

   

• Policy and funding changes at the NSF and the Department of Education have created challenges for PhD and master's programs

   

• A reduced pipeline of international PhD and master's degree candidates could underserve the demand

   

• Proposed legislation that could help address some of the gaps (such as The Fusion Work Force Act)

   

• Discussion on how China is relentlessly investing in both people, technology, and facilities

After reading this article, we felt we should expand on a few areas. Like many things in life, we can often see the issues, but the question is, will the U.S. government take the required actions to drive leadership in fusion and capture this $1T+ market opportunity before China does?

The Academic Pipeline

The foundation of the fusion economy relies on a steady stream of advanced-degree holders (PhDs and Master's) in physics, materials science, AI, and engineering. However, 2024 and 2025 have marked a period of significant contraction in the academic pipeline, primarily driven by fiscal policy adjustments.

• NSF and Department of Education Cuts: Recent fiscal realignments have reduced the grant capacity of the National Science Foundation (NSF) and the Department of Education. Notably, reports from April 2025 indicate a nearly 50% reduction in prestigious PhD fellowship awards. These cuts have forced major research universities to freeze or reduce graduate admissions, directly throttling the output of future fusion scientists.

   

• Graduate Enrollment Impacts: The correlation between funding and enrollment is direct. Without grant coverage for tuition and stipends, fewer students can afford to pursue higher education. Data suggests a contraction in PhD admissions for the 2024–2025 cycle, with universities unable to sustain previous levels. This reduction creates a lag effect: the “missing” scientists of 2025 will result in a shortage of principal investigators and lead engineers in the early 2030s, which is precisely when commercial fusion plants are expected to come online.

The International Pipeline

The U.S. has relied on international talent to bridge the gap in domestic STEM production. In fields such as computer science and engineering, international students have comprised up to 72% of graduate student populations in recent decades. However, this critical supply line is currently not being filled in with new enrollments.

• Decline in Applications: For the 2025-2026 academic year, data indicate a decline of approximately 13% to 17% in new international graduate enrollments. This drop is attributed to a combination of visa processing uncertainties, perceived instability in immigration policy, and rising educational costs.

   

• The Opt-Out Phenomenon: A growing number of skilled international students are opting out of the U.S. education system entirely. Surveys suggest that while 73% of prospective international students would prefer to stay in the U.S., visa hurdles and background checks are driving them away. In high-demand fields such as AI and advanced physics, nearly 60% of U.S.-trained international PhDs have cited visa issues as their primary reason for leaving the country after graduation.

   

• The Consequence: By making it difficult for the world’s brightest minds to study and stay in the U.S., the nation effectively subsidizes its competitors' workforce development, as these individuals return home or move to other countries with their U.S.-acquired expertise.
  

The Skilled Trade Pipeline

While the academic pipeline faces constriction, the skilled technical trades workforce - essential for the physical construction and maintenance of fusion facilities - is experiencing a resurgence.

• Trade School Growth: In stark contrast to university enrollment, vocational and trade programs have seen robust growth. Enrollment in public trade-focused two-year colleges rose by nearly 20% compared to 2020 levels. Specific sectors relevant to plant operations, such as HVACR (Heating, Ventilation, Air Conditioning, and Refrigeration), saw enrollment spikes of nearly 30% in 2025.

   

• Relevance to Fusion: This is a positive indicator for the “deployment” phase of fusion. Commercial fusion plants will require an army of welders, electricians, and cryogenics technicians. The current boom in trade enrollment suggests the blue-collar workforce may be better positioned to meet demand than the white-collar scientific leadership, provided these trade programs integrate specific training for nuclear and high-vacuum environments.

The Cognitive Disconnect - Policy vs. Objective

There exists a profound “cognitive disconnect” between U.S. energy goals and educational policy.

In October 2025, the Department of Energy released an ambitious “Fusion Science and Technology Roadmap” to accelerate commercialization. Simultaneously, federal budget priorities have reduced the very inputs (NSF grants, research fellowships) required to achieve that roadmap.

• The Mismatch: Policy mandates calls for “rapid scaling” and “technological dominance,” yet fiscal mechanisms are dismantling the R&D talent pipeline. This misalignment suggests a failure to view workforce development as critical infrastructure. A fusion power plant cannot be built solely with capital investment; it requires human intellectual capital that takes a decade to cultivate.

The China Challenge

While the U.S. retains a leadership position in private fusion innovation, a stark divergence has emerged between federal policy ambitions and the fiscal instruments required to execute them. The 2025-2026 landscape is defined by high-level strategic intent, in contrast to a widening public funding gap relative to geopolitical competitors.

• The Department of Education’s Strategic Convergence (Fusion, AI, Quantum)

• • • In October 2025, the Department of Energy released its Fusion Science and Technology Roadmap to coordinate a "Build–Innovate–Grow" strategy.

       

    • This Department of Energy policy explicitly links fusion energy with American dominance in artificial intelligence and quantum computing, recognizing that the immense baseload power requirements of future AI data centers can only be met by fusion at scale.

       

    • To operationalize this, the Department of Energy underwent a structural reorganization in late 2025, elevating the Offices of Fusion, AI, and Quantum to report directly to the Under Secretary for Science. This move signals a strong bureaucratic intent to treat these three sectors as an intertwined "critical trilogy" for national security and economic stability.
      

• The FIA Recommends a $10 Billion Fusion Investment

• • Despite the robust policy framework, federal appropriations have not yet aligned with the Department of Energy’s Fusion Energy ambitions and the roadmap’s milestones.

     

  • The Fusion Industry Association (FIA) formally requested a one-time federal injection of $10 billion.

     

  • The request outlines a split of approximately $4.6 billion for critical R&D infrastructure (materials testing, fuel cycle research) and $5.4 billion to accelerate commercial deployment via milestone-based reimbursements.

     

  • This injection is viewed not as a subsidy, but as a necessary capital catalyst to unlock supply chains that private venture capital cannot fund alone. Without this, the U.S. relies on a model that is 94% privately funded, leaving it vulnerable to market volatility, whereas competitors utilize state-backed guarantees to de-risk construction.

• China’s "Whole-of-Nation" Investment Scale

• • While the U.S. debates appropriations, China has executed a centralized, state-funded acceleration strategy that dwarfs U.S. public spending by a factor of three in key deployment areas.

     

  • Cash and Capital: Estimates indicate that China’s government is deploying approximately $1.5 billion annually in direct state funding for fusion, resulting in a multi-year investment of over $6.5 billion since 2023. Additionally, the formation of the state-owned China Fusion Energy Co. (CFEC) with ~$2.1 billion in initial registered capital signals a shift from "research" to "industrialization."

     

  • Facilities (The Hefei Hub): China has completed the CRAFT (Comprehensive Research Facility for Fusion Technology) in Hefei, a massive campus dedicated to testing reactor components under extreme conditions. Furthermore, they have commenced construction and international collaboration on the BEST (Burning Plasma Experimental Superconducting Tokamak), a facility designed to demonstrate the actual burning of deuterium-tritium plasma, a capability the U.S. currently lacks the domestic infrastructure to replicate at scale.

     

  • Education and Workforce: Unlike the decentralized U.S. approach, China has aligned its top universities (such as USTC) directly with national laboratories, creating a seamless pipeline of talent. This "State-Aligned Academic Mobilization" ensures that thousands of engineers are trained specifically on the hardware being built at CRAFT, effectively pre-staffing their future reactor fleet with 10,000 PhDs.
    

Pathways to Remediation

Fixing this self-inflicted wound requires a holistic approach to workforce policy that aligns with industrial strategy:

1. Restoration of R&D Funding: Federal funding for the NSF and Department of Education must be viewed as a national security investment. Restoring PhD fellowships is the fastest way to unfreeze the academic pipeline.

    

2. Visa Reform for STEM Talent: The U.S. must streamline the transition from “F-1 student” to “H-1B worker” or “O-1 talent” for graduates in critical energy sectors. Retaining the talent we educate is the most efficient way to close the skills gap.

    

3. Integrated Trade-Academic Partnerships: The successes in trade school enrollment should be leveraged to create “fusion technician” certifications that enable trade graduates to enter the high-tech energy workforce seamlessly.

    

Can We Avoid Self-Inflicted Wounds?

The US and our allies are leading in fusion energy development today. As we have seen with other technologies like solar panels, AI models, batteries, etc., China will follow fast and will often exceed the U.S. if we let them. The skills of the people are the core basis of the fusion, AI, and quantum technology leadership. AI and quantum will help the innovation of fusion move faster, but skilled people are required to invent, design, deliver, and implement the technology and roadmaps. 

Today, it seems like we have a great plan for the technology programs, such as the Genesis Mission. It is the fervent hope of The Fusion Report that our government will return to investing in our workforce, so that we continue to build the skills and human pipeline as we have in the past, and as China is doing now. Or we will again transition from being the innovators to the followers in the technology we will have optimized and commercialized.