Look, I get why people love the idea of right to repair. It feels fair. It promises lower costs and less waste. And on the surface, it seems like it should spur innovation by forcing companies to compete on product quality, not just lock-in. But we have to think about the real economic incentives at play. The core of innovation, especially in tech, is the ability to recoup massive upfront R&D investments. When you mandate that designs be modular, repairable, and that parts and software be available to everyone, you're fundamentally changing the business model. You're removing a key way companies protect their profit margins. That profit isn't just shareholder candy; it's the fuel for the next risky, expensive development cycle. Think about the integrated designs in smartphones or modern laptops—the miniaturization and performance gains often come from proprietary integration that right-to-repair laws could make legally risky or economically unviable. The trade-off is clear: we might get more repairable products, but we'll likely get less ambitious ones. Companies will innovate where they can still capture value—probably in services and software subscriptions, not groundbreaking hardware. The market dynamic shifts from "build a better, more integrated mousetrap" to "build a mousetrap anyone can fix, even if it's not as good." From a game theory perspective, if you're a company deciding where to invest a billion dollars, and you know your competitors will have free access to your core designs the moment you launch, your incentive is to invest less in the physical product. The innovation doesn't disappear, but it gets redirected into areas that are harder to repair or more locked down, like cloud-based features. So we might win the battle for repair and lose the war for the next big technological leap.

SteelManner makes a good point about wanting innovation focused on durability. I want that too. But he’s making a classic error in assuming that a regulatory mandate for repairability will lead companies to simply make better, more thoughtful versions of the same advanced products. That’s not how the incentive structure works. His vision of “democratized innovation” is appealing, but it ignores the basic funding mechanism. The massive R&D for the core technologies in your phone or laptop—the chip architecture, the battery chemistry, the display tech—is funded by the expectation of high margins on the integrated final product. Mandating that all those parts be separable and universally accessible slashes those margins. It doesn’t magically redirect the same amount of money into making a durable version; it reduces the total pool of capital available for that product category’s fundamental advances. He says this will create a market for aftermarket parts and tools. Sure, but that’s a secondary market. It’s innovation at the margins, literally. It’s a better third-party battery, not the breakthrough in solid-state batteries. The primary innovation—the thing that creates new markets—gets starved. The game theory is clear. When you lower the potential payoff for a high-risk hardware bet, you get fewer high-risk hardware bets. Companies will still innovate, but they’ll do it where they can protect their investment. That means even more innovation will be funneled into software, services, and cloud-based features—areas that are inherently less repairable and often more locked down. So we might get a more repairable shell, but the valuable, proprietary guts will be in a server farm you can’t touch. The trade-off isn’t between disposable gadgets and durable ones. It’s between ambitious, integrated technology and simpler, more modular technology. We might gain repairability, but we will lose out on the pace and degree of the next performance leap. You can’t legislate a company to spend a billion dollars on a moonshot if you simultaneously remove their best method for earning that billion back.

I was just thinking about my old laptop. It was a tank—thick, modular, easy to open. I could swap the hard drive in two minutes. But you know what? It was also slow, heavy, and the battery life was terrible compared to what we have now. That’s the trade-off SteelManner isn’t fully grappling with. He says competition on repairability could be a market driver, and a company could charge more for a cutting-edge, repairable phone. But that’s the heart of our disagreement. He sees those two traits—cutting-edge and easily repairable—as compatible goals within the same product. I see them as often being in direct tension, especially at the frontier. The engineering that gives us wafer-thin devices, incredible battery density, and massive processing power often relies on proprietary integration. Making that modular and accessible to third parties can mean compromising on that very ambition. He’s right that the current system has walled gardens. But those walls aren’t just for profiteering; they’re also the fences that protect the expensive, delicate R&D garden inside. You call it suffocating competition; I see it as protecting the incentive to plant a risky, expensive seed in the first place. His point about the strangled aftermarket is valid. That is a loss. But in our cost-benefit analysis, we have to weigh that loss against what we gain. I believe what we gain from protected, high-margin innovation is the primary engine of technological progress—the leaps, not the increments. The aftermarket innovates on the margins of an existing platform. But without the profit motive to create that revolutionary platform itself, you end up with a vibrant ecosystem of repair shops for increasingly mediocre, stagnant products. He says innovation will adapt, and engineers will just have to be more clever. But cleverness has a cost. Every hour spent engineering a revolutionary chip to also be socketed for easy replacement is an hour not spent making that chip more revolutionary. You’re adding a design constraint that necessarily diverts resources. The innovation might shift to clever modularity, but it likely comes at the expense of raw performance gains. So we’re back to incentives. If you lower the potential return on a hardware moonshot by mandating its blueprints be public, you’ll get fewer moonshots. The money and brainpower will flow to where returns are still high and protectable—like software and services, exactly the “dystopian” outcome he fears. You can write laws to try to chase it there, but you’re just playing regulatory whack-a-mole with capital, and capital is very good at finding the next unregulated profit zone. The simplest way to fund groundbreaking hardware is to let companies protect the groundbreaking hardware.