What It Takes to Build Nuclear at Scale: Lessons from the Car, Computer, and the Milk Carton

When people hear the word nuclear, they often think first about physics: neutrons, fuel, containment, power output. All of that matters. But history shows that the technologies that truly change the world are not defined by their scientific elegance alone. They succeed because someone figures out how to build them repeatedly, reliably, and affordably, at a scale that matches real human needs.

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At Deployable Energy, our mission is to develop 1-megawatt microreactors that can be manufactured at scale and deployed where energy reliability matters most. To do that, we look beyond the nuclear industry for guidance. Some of the most instructive lessons come from companies and innovations that transformed entire markets by rethinking manufacturing, supply chains, and capital efficiency.

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Three exemplars in particular shape how we think: Ford’s approach to mass manufacturing cars, Dell’s supply-chain discipline for disrupting the PC market, and an unlikely but powerful innovation, Borden’s humble milk carton for driving capital efficiency.

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The Car: Ford’s Manufacturing as a Strategy, Not an Afterthought

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Henry Ford did not invent the automobile. His breakthrough was far more consequential. He reinvented how automobiles were built.

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Before Ford, cars were bespoke products, assembled by skilled craftsmen in small numbers. Ford’s insight was that the true bottleneck was not demand. It was production. Ford’s innovation came through developing processes that enabled the type of production needed to meet demand. By standardizing components, simplifying designs, and introducing the moving assembly line, Ford turned automobiles from luxury goods into mass-market tools of productivity.

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The lesson for Deployable Energy is direct. Nuclear power has historically been treated as a custom infrastructure project: large, site-specific, slow to build, and expensive to replicate. That model is fundamentally incompatible with the scale and speed required to meet modern energy needs.

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Our approach starts from the opposite premise. Manufacturing is the product. A 1-megawatt microreactor must be designed from the outset to be built the same way, over and over again, in a factory environment. Standardization is not a constraint. Standardization in processes are the enablers of quality, cost control, and learning curves.

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Just as Ford realized that precision, repetition, and tooling mattered as much as engines and transmissions, we believe that the future of nuclear energy depends on mastering production systems and processes, not just reactor physics. The goal is not to build a reactor. The goal is to build thousands of identical reactors, each benefiting from the experience of the last.

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The Computer: Dell’s Supply Chain Methodology as a Competitive Advantage

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If Ford showed the power of manufacturing discipline, Dell demonstrated the strategic importance of supply chains.

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Dell did not win by having the most exotic hardware. It won by tightly integrating suppliers, minimizing inventory, and aligning production directly with customer demand. By focusing relentlessly on supply-chain efficiency, Dell delivered reliable, cost-competitive products while competitors struggled with bloated inventories and unpredictable costs. Vendors must have reasons to invest in capacity and quality because they see sustained demand, not one-off projects.

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For Deployable Energy, this lesson is especially relevant. Nuclear energy has often been burdened by fragile, bespoke supply chains, with components sourced infrequently, from limited vendors, and with little incentive for cost reduction or continuous improvement.  

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We are taking a different path. Designing a microreactor for scale means designing around repeatable, resilient supply chains. Our path focuses on using existing fuel supply chains that leverage low-enriched uranium oxide fuel, a water moderator, helium coolant and other non-exotic materials that are readily available. In the early stages of our company, we examined designs that used more exotic fuel forms and materials, and we iterated on our design with the goals of maximizing performance while ensuring commercial viability.  We realized it is essential that components must be available, manufacturable, and replaceable without heroic efforts.  

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Reliability and cost competitiveness are not opposing goals. As Dell proved, they are often the same goal, achieved through disciplined logistics, standard interfaces, and predictable volumes. When supply chains are designed intentionally, reliability improves and costs fall, not through shortcuts, but through systems thinking.

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In nuclear energy, this mindset is essential if we are serious about making clean, firm power accessible beyond a handful of large grid projects.

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The Milk Carton: Borden’s Capital Efficiency and Everyday Practicality

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The most instructive example may be the least glamorous.

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Milk was once commonly delivered in large glass bottles. These containers were heavy, breakable, and required households to commit to a large quantity of a perishable product. If the bottle broke, there was immediate loss. If the milk spoiled before it was consumed, value was wasted. Capital, both for suppliers and consumers, was tied up unnecessarily.

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The milk carton changed all of that. Smaller, lighter, safer containers reduced breakage risk, lowered upfront cost, and aligned consumption with real demand. Borden was the first to leverage innovation that was not about making milk better. It was about making the system around milk more efficient and safer.

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This lesson resonates deeply with how we think about microreactors.

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Traditional nuclear plants are the glass bottles of energy: massive, capital-intensive, and high-consequence if something goes wrong. They require end users to commit enormous resources upfront and wait years before realizing value.

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A 1-megawatt microreactor is more like a milk carton. It delivers energy in right-sized increments, reducing financial exposure and deployment risk. It allows customers to scale gradually, aligning capital investment with actual need. And by emphasizing passive safety and robust containment, it minimizes the consequences of failure, just as cardboard replaced glass.

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The milk carton also brought innovation in its usability with its fold-out function providing ease of pouring. Similarly, Deployable Energy has innovated to bring together available materials to enable game-changing safety and performance. This is not about lowering standards. It is about matching form factor to function, and recognizing that safety and capital efficiency often reinforce each other.

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Building the Future by Learning from the Past

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Deployable Energy’s philosophy is grounded in a simple belief. Transformative technologies succeed when they are engineered for scale, not treated as exceptions.

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Ford, Dell, and Borden all demonstrate that progress comes from rethinking systems: manufacturing systems, supply-chain systems, and user-facing economic systems. Nuclear energy is ready for that same shift.

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Micronuclear reactors can play a critical role in delivering clean, reliable power. But only if they are designed not just to work, but to be built, deployed, and trusted at scale.

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That is the challenge we are taking on, and the tradition we are proud to carry forward.

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