How Planned Obsolescence Depends On Populations That Don't Think About Systems

Planned obsolescence is one of the clearest examples of what happens when you optimize a system for the interests of one actor — the manufacturer — without any countervailing intelligence at the consumer level. It's also one of the most teachable examples of systems thinking, because the system is relatively simple and the consequences are concrete.

Let's trace the full thing.

The origins and mechanics of planned obsolescence

The concept was first articulated — approvingly — in 1932, by real estate broker Bernard London, who wrote a pamphlet proposing that the government mandate product obsolescence to keep consumer spending up during the Depression. London didn't invent the practice; General Motors had already been practicing it for years through annual model changes designed to make last year's car feel out of date. But he named it, and in naming it, he revealed the logic: obsolescence is manufactured, not inherent.

The Phoebus cartel is the canonical example. In 1925, the major lightbulb manufacturers of the world — GE, Osram, Philips, and others — formed a cartel whose explicit purpose was to reduce the lifespan of lightbulbs from 2,500 hours to 1,000 hours. Before the cartel, lightbulbs were improving in longevity. After the cartel, manufacturers were fined for producing bulbs that lasted too long. The technology to make longer-lasting bulbs existed. The incentive to deploy it did not. The consumer was simply not informed about this negotiation, which happened entirely out of their sight.

The smartphone era has industrialized this dynamic. Apple's 2017 admission that it deliberately slowed older iPhones — framed as "battery management" but experienced as performance degradation — was not an aberration. It was a window into a systematic practice. The design of modern electronics includes deliberate limits on repairability: proprietary screws, glued-in batteries, components unavailable for purchase, software locks that reject third-party repairs. None of this is necessary for the device to function. All of it is necessary for the business model to function. The business model requires recurring purchase. Recurring purchase requires things that stop working.

What systems thinking reveals

A systems thinker looking at a smartphone purchase doesn't just see a product decision. They see:

The incentive structure of the manufacturer: revenue maximization over product lifetime, which optimizes for upgrade frequency, which optimizes for controlled degradation. This is not a moral criticism — it's a description of a rational response to incentives. The manufacturer is doing what the incentive structure rewards. The question is whether that incentive structure is compatible with the interests of buyers and of the broader system.

The supply chain upstream: where do the materials come from? Cobalt for batteries — 70% from the Democratic Republic of Congo, much of it extracted under conditions that include child labor and extreme occupational hazard. Coltan: same region, often funding armed groups. Lithium: large-scale mining operations in South America with significant water impacts. Rare earths: primarily China, with significant environmental externalities concentrated in mining regions. The $999 phone is priced against a supply chain that externalizes enormous costs onto people and environments with no voice in the transaction.

The waste stream downstream: where does the phone go when it's "obsolete"? For most buyers in wealthy countries, it goes into a drawer, then a landfill, or into an informal export stream that ends up in developing country processing facilities. The "recycling" label on many electronics is misleading — a significant fraction of electronics labeled as recycled in wealthy countries is exported to informal processors in developing countries, where it's handled in ways that would be illegal domestically. The regulatory arbitrage is not an accident; it's built into the system.

The regulatory environment: right-to-repair laws have been fought by manufacturers at every legislative level. The argument made is that repair compromises safety and intellectual property. The counterargument — which systems thinkers can make because they can see the whole board — is that the prohibition on repair forces consumers into premature replacement, generating environmental costs and economic costs that fall on consumers and on the public, while the manufacturer captures the gains. The legislative fight over right-to-repair is a fight over whether the full system cost of a product gets reflected in consumer decisions. Manufacturers have strong incentives for that cost to remain invisible.

The cognitive gap planned obsolescence exploits

Here's the core mechanism: planned obsolescence is only viable as a business model when the population being sold to reasons locally rather than systemically.

Local reasoning: this phone costs $999 and works well. My current phone is slowing down. I'll upgrade.

Systemic reasoning: this phone costs $999 but its total cost of ownership includes: the likelihood of needing replacement in 2-3 years due to design decisions I can't override, the battery replacement cost if that option is even available, the environmental cost of the manufacturing process already incurred, the opportunity cost of that manufacturing cost against a longer-lasting alternative, and my contribution to the e-waste stream, which has real costs that someone — typically someone poor and unprotected — will bear.

The systemic reasoning doesn't necessarily produce a different conclusion. It might still be rational to buy the phone. But it produces a different relationship to the decision — and at scale, a different market signal. If enough buyers evaluate on total system cost rather than sticker price, manufacturers face pressure to optimize for total system cost. That pressure is what produces the right-to-repair movement, the modular phone attempts (Project Ara, Fairphone), and the growing circular economy design philosophy. These alternatives already exist — they are commercially viable when the market signals support them. The market signals have been muted by a population that reasons locally.

The environmental cost in civilizational terms

The International Telecommunication Union estimates 53.6 million metric tons of e-waste was generated globally in 2019, a figure growing at approximately 2 million metric tons per year. Of this, formally documented collection and recycling accounted for 17.4%. The rest enters informal streams, landfills, or export chains that end in informal processing.

Informal e-waste processing is one of the world's most toxic occupations. Workers — often in Ghana, Nigeria, Pakistan, India — burn plastic-coated wire to extract copper, use acid baths to dissolve circuit boards and extract gold and other metals, and conduct this work with bare hands and no respiratory protection. The health impacts include neurological damage from lead and mercury, respiratory disease from burning plastics, and carcinogenic exposure from brominated flame retardants. Studies of children in informal e-waste processing areas show elevated blood lead levels, developmental delays, and respiratory problems.

These are the external costs of upgrade culture, concentrated in communities with no political relationship to the upgrade decisions being made in wealthy countries. The consumer in California who upgrades every two years because Apple has made the experience smooth and the trade-in program painless is not typically in a position to see the child in Agbogbloshie who is breathing the results of that decision. The distance is not accidental — it's built into the system. Systems thinking collapses that distance, at least conceptually. And concepts are where behavior change begins.

What a systems-thinking population demands

Populations that reason in systems make different demands:

Right-to-repair, because the inability to repair concentrates upgrade decisions in the manufacturer's interest rather than the owner's. France has implemented a repairability score — a label on electronics that rates how repairable a product is, scaled 1-10. This is systems thinking made mandatory at the regulatory level: the system that was previously invisible to the consumer is now disclosed. Preliminary data suggests it's influencing purchasing behavior.

Extended producer responsibility, which requires manufacturers to fund and manage the end-of-life of their products. When the cost of disposal is borne by the manufacturer rather than externalized onto the public and onto developing country processors, the manufacturer has an incentive to design for recyclability and durability. This incentive currently doesn't exist in most markets because the disposal cost is externalized. Systems thinking reveals the externalization as a subsidy to manufacturers paid by the public in degraded environments and public health.

Longevity labeling, alongside energy labeling — mandatory disclosure of expected product lifespan under normal use conditions. The EU is moving in this direction. When buyers can compare expected lifespans alongside price, the total cost of ownership calculation becomes doable without specialist knowledge. The system becomes legible without requiring every buyer to be a systems thinker.

Modular design standards, which would allow components to be replaced without replacing the whole device. The technical barriers to this are not insurmountable — Fairphone has demonstrated that a modular smartphone is commercially manufacturable. The barrier is manufacturer preference for the existing model. That preference loses when market demand shifts, and market demand shifts when buyers understand what they're giving up.

The connection to the civilizational premise

The resources embedded in the e-waste stream — if recaptured efficiently — represent significant value. The urban mining of e-waste yields gold, silver, copper, palladium, and dozens of other materials at concentrations often exceeding primary ore. The failure to capture this value is an enormous civilizational inefficiency, driven primarily by the gap between the design of products and the design of end-of-life systems.

The labor and capital that goes into manufacturing products designed to fail prematurely could alternatively go into products designed to last, or into entirely different productive activities. The planned obsolescence model is, at civilizational scale, a massive misallocation of productive capacity — resources burned creating and re-creating what could have been created once.

In a world where resources are tight enough that hundreds of millions go hungry, the deliberate inefficiency of planned obsolescence is not a neutral economic fact. It's a choice, made by actors who benefit from it, at the expense of actors who bear the external costs and have no voice in the decision. Systems thinking makes this visible. Making it visible is the prerequisite for changing it.

The 1,000-Page Manual is, in part, an argument that the knowledge to see systems clearly is the most important leverage available to individuals in a world where systems determine outcomes. Planned obsolescence is a perfect illustration: a population that can't see the system accepts the terms the system imposes. A population that can see the system can change those terms. The change doesn't require legislation first — it requires demand first, and demand follows from understanding.

Give everyone the mental models to see systems, and watch how quickly the systems that depend on opacity stop being profitable. That's not idealism. That's market logic, applied to an informed market.