← Back to Library

The art of industrial leapfrogging

Ben Reinhardt delivers a jarring but necessary correction to the current feverish obsession with "reindustrialization," arguing that simply moving factories back to American soil is a fool's errand without a fundamental shift in how we think about production. While the public discourse fixates on logistics and tariffs, Reinhardt posits that we are currently stuck in a "model crisis" of the existing manufacturing paradigm, where efficiency gains have hit a wall and the old rules no longer apply to the problems we face. This is not a plea for more subsidies; it is a call to recognize that the next leap in human progress depends on building a system that can manufacture the impossible, not just the affordable.

The Hidden Bottleneck of Civilization

Reinhardt begins by dismantling the assumption that scientific breakthroughs automatically translate to societal progress. He argues that the gap between a lab discovery and a life-saving product is almost always a manufacturing gap. "Techno-industrial civilization is downstream of manufacturing technology," he writes, a blunt reminder that ideas are useless without the physical means to instantiate them. He illustrates this with the history of penicillin, noting that before researchers figured out how to grow massive batches in bioreactors, the drug was a "miraculous scientific breakthrough with a worldwide supply of a few hand-made doses." The lesson is stark: without the ability to scale, even the most profound discoveries remain curiosities.

The art of industrial leapfrogging

The author extends this logic to the climate crisis and the future of computing. He points out that fusion energy "secretly hinges on our ability to manufacture easily-replaceable, low-activation material" capable of withstanding extreme heat flux, a constraint that has nothing to do with physics and everything to do with materials engineering. Similarly, the continued advancement of artificial intelligence relies on the "Planar Process" and other manufacturing innovations that keep Moore's Law alive. "The impact of any breakthrough is limited if you can't make enough of it economically," Reinhardt asserts. This reframing is crucial because it shifts the focus from R&D budgets to the often-boring, often-overlooked reality of production lines and supply chains.

Critics might argue that this view overstates the difficulty of scaling, suggesting that market forces will naturally solve these bottlenecks once the technology is proven. However, Reinhardt's experience reaching out to researchers who have "moved on" after publishing papers that are fundamentally unscalable suggests that the market often fails to bridge the gap between a prototype and a product.

The Anatomy of a Paradigm Shift

To explain why the current push for onshoring might fail, Reinhardt introduces the concept of "manufacturing paradigms," borrowing from Thomas Kuhn's framework for scientific revolutions. He argues that manufacturing does not improve linearly but through discrete jumps that change the very rules of the game. He traces the history of these shifts, from the steam power that reorganized society around factories to the "interchangeable parts" system that allowed for complex, maintainable products like automobiles.

Reinhardt draws a fascinating parallel to the history of astronomy to illustrate where we stand today. Just as astronomers once tried to explain planetary motion by adding "epicycles" to an Earth-centric model, modern manufacturers are trying to force-fit new technologies into an outdated global supply chain. "How does Venus have phases if it's always on the opposite side of the earth from the sun?" he asks rhetorically, before noting that in manufacturing, we are currently piling up observations that the "network manufacturing" paradigm cannot explain. The current system, defined by global containerized shipping and just-in-time logistics, has reached "system saturation." We have climbed to the top of the efficiency hill, and the view from the top is a dead end.

Manufacturing advances often stand between us and unlocking the future.

The author suggests that we are currently in a "model crisis" where the old paradigm is breaking down. He describes the early stages of a new paradigm as often looking like a failure: "For years, guns made with interchangeable parts were both more expensive and lower quality than their hand-crafted counterparts." This historical context is vital; it warns investors and policymakers that the path to a new system is not a straight line of improvement but a valley of death where early adopters must tolerate higher costs and lower quality for the sake of a capability that doesn't yet exist.

Building the New System

Reinhardt identifies the current dominant paradigm as "network manufacturing," a system that enables deep decoupling between design and production. While this has driven down costs for consumer goods, he argues it is ill-suited for the challenges of the 21st century, such as climate change or space exploration. The new paradigm he envisions must unlock "design space"—the ability to create things that were previously impossible regardless of cost. He cites the example of turbines, whose blades spin at 10,000 RPM mere millimeters from their casing, a feat made possible only by the precision and reliability of interchangeable parts.

The transition to this new system requires what he calls "system building," where innovators create components and processes that are "anti-paradigmatic" to the current norms. This is a risky, resource-intensive phase where the new system often looks inferior to the old one. "Lucky systems find a niche that values their capabilities enough to tolerate the downsides," he writes, noting that the US military was willing to support the incremental improvements of interchangeable parts despite their initial flaws. The implication for today is clear: we cannot wait for the private market to spontaneously optimize a new system; we need strategic, patient capital to support the "valley of death" phase of manufacturing innovation.

Critics might note that Reinhardt's reliance on historical analogies risks oversimplifying the complex geopolitical and economic forces that shape modern supply chains. The shift from hand-crafted to interchangeable parts took decades and was driven by specific military needs; it is not guaranteed that a similar shift will occur for green energy or biotech without a similarly urgent catalyst.

Bottom Line

Reinhardt's most compelling argument is that the current obsession with "onshoring" is a distraction if it doesn't come with a fundamental rethinking of manufacturing paradigms. His biggest vulnerability lies in the ambiguity of what the "new paradigm" actually looks like in practice, beyond the historical examples he provides. However, his insistence that we are in a "model crisis" and that the old rules of global efficiency no longer apply is a vital warning for anyone betting on the future of industry.

The impact of any breakthrough is limited if you can't make enough of it economically.

Deep Dives

Explore these related deep dives:

  • Deferent and epicycle

    Linked in the article (18 min read)

  • Learning curve

    Linked in the article (17 min read)

  • American system of manufacturing

    The article discusses interchangeable parts as a major manufacturing paradigm shift, mentioning guns and sewing machines. The American system of manufacturing is the historical system that pioneered interchangeable parts in the 19th century US, providing rich context on how this paradigm emerged and transformed industry.

Sources

The art of industrial leapfrogging

by Ben Reinhardt · · Read full article

This essay is an extended version of the talk I gave at Progress Conference 2025. I will add a link to the recording as soon as it’s published.Note: if you already agree with all the arguments and want to skip to the description of the new paradigm, jump to the section Building a new system.

Manufacturing is like a sewer. We all know it’s important, but we don’t really want to think about it until something goes wrong.

Well, something is going wrong.

If you’re reading this, it means you’re not living under a rock (or at least that your rock-covered home has internet) and therefore you’ve heard some noise about manufacturing. “Reindustrialization”, “onshoring”, “advanced manufacturing”, and other terms are everywhere. Considering that materials and manufacturing underpin civilization, it’s great that such an important and often ignored area is getting the air time it deserves!

But the way that most people are thinking about manufacturing — particularly how to manufacture more things in the US, why that is important, and more generally how centers of manufacturing gravity shift — is incomplete or just plain wrong.

I’m going to unpack a different way to think about manufacturing and how it changes over time: the idea of a manufacturing paradigm.

We’ll dig into the history of manufacturing paradigms, how they shift centers of manufacturing, and explore the fuzzy contours of the new paradigm we might be able to create. Creating this new paradigm is important not just for those of you focused on the US; it’s critical for unlocking human progress both on earth and across the stars.

Manufacturing matters.

First, I want to establish some table stakes: Techno-industrial civilization is downstream of manufacturing technology. Regardless of what kind of progress you want to see in the world, you should care about manufacturing.

Do you want to fight disease, improve health, and extend lifespans? You need manufacturing advances. A manufacturing innovation turned penicillin into the life-saving juggernaut that has saved hundreds of millions of lives and arguably helped win WWII: before researchers figured out how to grow huge batches of penicillium rubens in a bioreactor it was a miraculous scientific breakthrough with a worldwide supply of a few hand-made doses. Today, many drugs and medical devices are secretly bottlenecked by their manufacturability.

Do you want to prevent climate change, save the environment, and make energy too cheap to meter? You need manufacturing ...