How FERC’s Large-Load Interconnection Actions Help Address Grid Stress, Improve Affordability



In a consequential grid infrastructure decision, the Federal Energy Regulatory Commission (FERC) today issued a major milestone on large-load interconnection impacting how those building AI factories, semiconductor fabrication support systems and advanced manufacturing facilities can connect to the grid. 

In the era of AI, which NVIDIA founder and CEO Jensen Huang has described as a five-layer cake, energy is the critical foundation of technological innovation. 

FERC’s actions do more than modernize the grid interconnection queue — the approval process power developers must complete to safely connect new energy generation to the electrical grid. Following U.S. Secretary of Energy Chris Wright’s order directing FERC to address large-load interconnection, the actions establish national policy for how America can simultaneously lower energy costs, grow its industrial base, scale AI and strengthen the electrical grid.

For policymakers, utilities and technology partners, the message is clear: This is a pro-growth, pro-affordability and pro-reliability policy.

Faster Connections, Stronger Grid

At its core, the new framework cuts through burdensome bureaucratic red tape and aligns industry incentives.

Large customers are no longer passive entrants into an overburdened interconnection queue. They’re active participants in building the infrastructure they require. That means:

  • Funding their own network upgrades, reducing cost pressure on existing ratepayers.
  • Bringing new energy generation online, increasing supply alongside demand.
  • Offering flexible load, allowing grid operators to manage peaks more efficiently.

Customers that can demonstrate flexibility — shifting or curtailing load in response to grid conditions — can move through the process on accelerated timelines, with study periods potentially as short as 60 days, per Secretary Wright’s directive.

This is not just faster interconnection. It’s smarter interconnection.

The Math Adds Up

Electric grids are capital-intensive systems with high fixed costs. When more demand is added efficiently, those costs are spread across a broader base — lowering prices per unit.

The data backs this up.

Lawrence Berkeley National Laboratory found that every 10% increase in state electricity consumption correlates with an approximately 6-cents-per-kilowatt-hour reduction in retail electricity prices. In other words, grid growth — when done right — lowers costs.

This dynamic is already playing out at the state level:

  • North Dakota, after adding 23 data centers, saw the nation’s largest decrease in electricity prices.
  • Mississippi, Louisiana and Virginia moved early to attract large loads and are now seeing tangible ratepayer, grid modernization and investment benefits.
  • PG&E has forecast that, under the right conditions, each new 1 gigawatt of data center load could reduce electric rates by 1-2% by spreading fixed grid costs over more usage.

Inversely, states that fail to attract new load risk concentrating system costs on a shrinking customer base — putting upward pressure on rates for households and small businesses.

FERC’s actions create a national pathway to avoid that outcome. They build on the successes of communities across North Dakota, Mississippi, Louisiana and Virginia to create a national on-ramp, enabling every region to compete for and benefit from the next wave of industrial and technological investment.

Infrastructure That Powers the Modern Economy

This is not abstract infrastructure. It underpins the technologies shaping the next generation of American competitiveness.

The facilities enabled by this framework will power:

  • AI-driven drug discovery that accelerates breakthroughs in medicine.
  • Semiconductor design and advanced manufacturing that secure domestic supply chains.
  • Weather modeling and climate analytics that improve resilience.
  • Next-generation energy systems that are more adaptive and reliable.

The benefits extend beyond any single facility or industry. They can reach every American who visits a doctor, buys a product or pays an electricity bill.

The Moment to Engage in a Decade-Defining Opportunity

The framework is in place — but how it’s implemented, refined and scaled will depend on the stakeholders who engage now. Across government and industry, those who engage today will define what this system looks like for the next decade — how fast it grows, how resilient it becomes and how broadly its benefits are shared. 

NVIDIA is not waiting.

In parallel with FERC’s action, NVIDIA and Emerald AI are already working with partners across the ecosystem to build a new class of AI factories — designed from the ground up as flexible grid assets.

These facilities will:

  • Bring their own generation to the grid
  • Respond to grid conditions in real time
  • Act as stabilizing forces for surrounding communities

Commercial deployment begins later this year.

This is what the future of large-load interconnection looks like: not a burden on the grid, but a backbone of reliability and efficiency.

FERC has taken an important step forward, and NVIDIA welcomes this leadership.

Fusion Sparks an Energy Revolution


In 2024, fusion technology will finally make the transition from basic research to commercial application. The reason for that will be the construction and completion of the first commercial fusion demonstrators. These cutting-edge facilities are smaller than fusion power plants. For instance, a laser-based fusion demonstrator might use five to ten laser beams, while a commercial power plant can use several hundred. However, they have a crucial role—to prove that fusion technology works on a small scale, paving the way for the construction of larger fusion-power plants. In 2024, they will do just this, starting to build devices that will finally achieve the elusive goal of energy gain– in other words, outputting more energy than the quantity needed to kickstart the fusion process. Hitting this milestone is a critical step in addressing the steeply increasing global energy demand, as fusion energy has the potential to provide an abundant, carbon-free source of power.

In 2022, researchers at the National Ignition Facility (NIF) in California became the first to demonstrate experimentally that a fusion process could indeed produce a net energy gain. This experiment used high-power lasers to deposit energy in a small fuel target—a millimeter-sized capsule containing frozen deuterium and tritium—creating the conditions for fusion to occur. The lasers delivered 2.05 megajoules of energy to the target, resulting in a fusion energy production of 3.1 megajoules. This was a scientific experiment—unlike fusion demonstrators, the NIF is not designed to operate continuously like a power plant. However, as a result of this scientific breakthrough, nuclear fusion has attracted considerable research, political, and investor attention in recent months.

National fusion strategies have been developed in the US, UK, Japan, Germany, and other countries to advance research and testing of the technology. Currently, the US and the UK are leading the race: The US Department of Energy funds fusion research with an annual budget of about $1.4 billion and encourages private enterprises to accelerate commercialization. The UK similarly fosters public-private partnership by raising a fusion cluster with universities and companies combining their expertise. High-profile investors recognize the opportunity of fusion technology, with over $5 billion of private capital flowing into fusion companies in the last two years.

The initiatives are bearing fruit: Several fusion companies worldwide, including Commonwealth Fusion Systems, Helion Energy, and General Fusion have announced plans to begin constructing facilities in 2024 to demonstrate their technological approach. According to the latest report by the Fusion Industry Association, over half of all fusion companies believe that fusion energy will be delivered to the public power grid during the 2030s. In May 2023, Microsoft signed a power purchase agreement with Helion Energy, to secure a supply of fusion-generated electricity by 2028. In August 2023, Marvel Fusion (a fusion energy firm I cofounded) announced a partnership with Colorado State University worth $150 million, the largest public-private partnership to date, with the aim of building the only laser facility tailored to a commercial laser-based fusion technology and the most powerful short-pulse laser system in the world. With these advances and commitments in place, 2024 is set to show that fusion is no longer a distant dream but an achievable future of clean and sustainable energy.