The AI revolution is starving for power. We build the foundation.
Artificial intelligence runs on a staggering amount of electricity — and the grid can’t deliver it fast enough. We generate clean power on-site, behind the meter, and bring large-scale compute online on our timeline, not the utility’s.
Start here — the whole story, in plain language
Transcript
Let me tell you about the biggest bottleneck in the modern economy, and how we're solving it. You've heard about artificial intelligence. ChatGPT, image generators, the whole wave of it. What almost nobody talks about is the dirty secret underneath all of it: AI runs on electricity. A staggering, almost unimaginable amount of electricity. The chips that power AI — the ones made by companies like Nvidia and AMD — are some of the hungriest machines humanity has ever built. A single rack of these chips can pull as much power as a small neighborhood. And the companies building AI want thousands upon thousands of these racks, as fast as they can get them. So here's the problem. The thing standing between these companies and their AI ambitions isn't chips anymore. It isn't software. It's power. They simply cannot get enough electricity, in the right place, fast enough. And that is the problem we exist to solve.
- ~0 GW
- Pipeline across 11 sites in 7 states
- 0 MW
- Per standardized, repeatable Power Block
- ~0 L/kWh
- Water use — drought-immune by design
Why the grid can't keep up
A new grid connection is a seven-to-ten-year process — studies, permits, hearings, backordered equipment, and a queue clogged with hundreds of gigawatts. AI needs power in eighteen months, not eight years.
Narrated
Transcript
Let's start with what's broken, because you can't appreciate the fix until you understand the failure. The electrical grid — the network of power plants, high-voltage lines, and substations that lights up your house — was designed for a slower world. When a utility wants to add major new power capacity or run a big new transmission line, it's a process measured in years. Often seven, eight, ten years. There are studies, permits, environmental reviews, public hearings, equipment that's backordered for years, and a queue of everyone else who wants to connect, all waiting in the same line. Now picture an AI company that needs a few hundred megawatts of power — enough to run a city — and they need it in eighteen months, not eight years. The grid simply cannot answer that request. The interconnection queues in this country are clogged with hundreds of gigawatts of projects waiting to plug in. People are waiting half a decade just for permission. And even when the grid can deliver power, there's a second problem: it's often the wrong kind, in the wrong form, delivered inefficiently. Every time electricity moves across long distances and gets converted from one form to another, you lose some of it as waste heat. The traditional setup wastes energy at almost every step. So you've got explosive demand on one side and a slow, congested, lossy delivery system on the other. That gap is where we live.
Stop waiting for the grid
We build the power right next to where it's needed — behind the meter, on-site, with solid-oxide fuel cells that turn fuel directly into electricity. No interconnection queue. No combustion. Dramatically cleaner.
Narrated
Transcript
Our whole approach can be summed up in one idea: stop waiting for the grid. Build the power right next to where it's needed. We call this “behind the meter.” That just means we generate electricity on-site, at the data center itself, instead of buying it from the utility and pulling it across the grid. No interconnection queue. No decade-long wait. No begging the utility for capacity it doesn't have. To do this, we use a remarkable piece of technology called a solid-oxide fuel cell. Now, don't let the word “fuel cell” scare you. Here's what it actually is: it's a box that takes natural gas, or hydrogen, and turns it directly into electricity through a chemical reaction — not by burning it. That distinction matters enormously. A traditional power plant burns fuel to boil water, to spin a turbine, to make electricity. Lots of steps, lots of waste, lots of pollution. A fuel cell skips all of that. It converts fuel to power directly and quietly, like a battery that you feed instead of recharge. Because nothing is being combusted in the traditional sense, it's dramatically cleaner.
Inside the machine
Walk through the Power Block, step by step — fuel cells, the DC-native backbone, the interchangeable cassettes, and the controls that keep it rock-steady.
A better neighbor
Cleaner air, untouched water, a grid we don't burden, good jobs, a growing tax base — and, in the right setting, shared heat for the homes next door.
We own the thing everyone needs
The world wants AI. AI needs power. We're not making the chips or building the models — we're building the foundation the entire AI revolution is starving for.
“In a gold rush, the people who win aren't always the ones panning for gold. They're the ones who own the thing everyone needs to get there.”
Narrated
Transcript
Here's the bottom line, the part to remember. The world wants AI. AI needs power. The grid can't deliver that power fast enough, cleanly enough, or in the right form. We've built a platform that delivers it on-site, faster than the grid, far cleaner than the alternatives, more efficiently than the standard approach, and flexibly enough to adapt as the technology keeps changing. We're not making the chips, and we're not building the AI models. We're building the foundation underneath all of it — the power platform that the entire AI revolution is starving for. And in a gold rush, the people who win aren't always the ones panning for gold. They're the ones who own the thing everyone needs to get there. That's DG Energy and Infrastructure. That's what we're building.
We’re glad you’re here.
Take your time and look around. When something resonates, we’d love to hear from you — reach out and let’s connect.
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