Could the Future Require a Kind of Industrial Sublimation?
Saturation, excess, and new destinations for productive capacity
For a long time, producing more was almost synonymous with progress. Greater capacity, lower costs, faster cycles, broader markets, better products arriving before competitors: these became part of the industrial definition of advancement itself. Scarcity was the visible problem, and efficiency seemed the natural answer. But highly efficient systems can create another kind of difficulty. They may become capable of generating novelty, scale, and productive capacity faster than markets, societies, and material systems can absorb them.
The automotive industry offers a useful glimpse of this shift. Development cycles that once took several years are being compressed through simulation, artificial intelligence, concurrent engineering, shared platforms, and tightly integrated supply chains. Much of the time removed from those cycles was probably waste. The problem begins when we assume that all time was waste. Some failures require mileage, aging, repeated use, unexpected combinations, and extreme conditions before they become visible. Certain things can be accelerated. Others simply need time to happen.
An innovation can therefore arrive too early even when it appears technically ready. Retractable electronic door handles capture this tension well. They may improve aerodynamics, visual coherence, and electronic integration while also adding complexity to one of the most elementary functions in a vehicle: opening a door when something has gone wrong. Sophistication does not necessarily produce robustness. Sometimes it removes an old redundancy whose value only becomes apparent under failure.
Acceleration is not driven by technological enthusiasm alone. When dozens of companies compete in the same space, none of them needs to believe that the pace is healthy in order to keep accelerating. It is enough to believe that the others will not stop. A familiar dynamic emerges: slowing down may make sense in isolation and still become dangerous competitively. Once shorter cycles, constant releases, and permanent novelty become conditions of survival, caution acquires a cost.
It is the industrial version of “everyone is doing it.”
In such an environment, imitation and innovation also stop behaving like opposites. One company introduces a solution, another copies and modifies it, a third makes it cheaper, a fourth combines several approaches, and the ecosystem itself moves forward. Copying is no longer merely a way to catch up with an external leader. It becomes part of the innovation mechanism among actors already operating close to the frontier. The faster this loop turns, however, the faster differences are absorbed and the more similar products begin competing for the same demand.
The ability to detect opportunity starts carrying within it the ability to destroy opportunity through overexploitation.
The first limit may not even be environmental. Before batteries, electronics, vehicles, and other components reach the waste stream in massive quantities, a more immediate problem can emerge: economic saturation. Too many models, too many factories, too much capacity, thinner margins, price wars, disappearing companies, and products that lose value while still physically new because the next generation is already cheaper or better.
This creates a peculiar form of obsolescence. The object has not worn out. It has aged economically. It still works, but its position in the market has deteriorated. The faster innovation moves, the shorter the distance may become between novelty and obsolescence. The system begins to anticipate not only launch, but replacement and disposal as well.
Not every saturation, however, means that an industry has reached a permanent limit. There is cyclical overcapacity: companies anticipate demand too early, the economy slows, inventories rise, and the imbalance may later be absorbed. Structural saturation is different. It appears when expansion begins to encounter persistent limits in income, population, infrastructure, resources, need, or marginal usefulness. Treating one as the other can turn a temporary mismatch into a premature theory of collapse.
There is also a third possibility, less intuitive: apparently excessive capacity may actually be reserve capacity.
The pandemic exposed this with unusual clarity. Suddenly, some products became scarce while others were needed in extraordinary quantities. Production lines were converted, factories changed function, suppliers reorganized, and industrial systems redirected themselves toward masks, medical equipment, electronics, and other urgent needs. The same crisis later revealed the reverse movement: some of the capacity built for exceptional demand became excessive once that demand receded.
The pandemic therefore revealed two opposite forms of fragility. Too much capacity can become waste. Exactly enough capacity for normal conditions can become a vulnerability the moment normal conditions disappear. A factory sitting idle looks inefficient until it is suddenly necessary. A system permanently operating close to maximum utilization may display excellent productivity and very little room to respond.
Perhaps we have confused efficiency with the elimination of slack.
Nature rarely works that way. Organisms store energy, maintain reserve capacity, alternate between activity and rest, and preserve redundancies that appear unnecessary until something fails. Resilient ecosystems are not necessarily those in which every available resource is continuously exploited at its limit. What looks idle may be precisely what allows the system to survive disruption.
Industry has another powerful survival mechanism: it can absorb its own failures. A company collapses, but its machines remain. Workers take accumulated experience elsewhere. Patents, suppliers, facilities, and knowledge can be acquired, incorporated, or reorganized. Corporate death does not necessarily mean the destruction of accumulated capacity. In dense industrial ecosystems, it can operate almost like recycling.
That mechanism also has a limit. It is relatively easy to absorb one troubled company inside a growing sector. It is much harder to absorb dozens when the sector itself is already overloaded with capacity. The situation changes again when several sectors reach similar conditions at once. At that point, moving assets from one company to another is no longer enough. Machines, people, capital, and knowledge need new functions.
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This is where the idea of sublimation becomes useful, provided it remains a metaphor.
In classical psychoanalytic terms, sublimation describes the redirection of impulses toward different objects and activities. The energy does not disappear; it changes destination. Something similar can be imagined for industrial systems. Productive capacity that no longer finds sufficient room in its original function does not necessarily need to be destroyed. It can be redirected.
But there is an important difference between changing the product and changing the function.
If an overcrowded industry simply moves en masse into the next promising technology, little may have changed. Electric vehicles may give way to humanoid robots, which give way to another emerging field, and so on. Capital, enthusiasm, incentives, and productive capacity repeatedly find a new object, which soon begins attracting too many firms, too much investment, and too much expectation. Saturation merely changes address.
That would be a kind of false sublimation: the same expansive compulsion redirected toward a different object.
A deeper transformation would require diversifying not only what industrial capacity produces, but what that capacity does. Some of it could manufacture; some could maintain. Other parts could repair, update, remanufacture, disassemble, recover materials, or extend the useful life of what already exists. Capacity could also move toward infrastructure, health, elder care, climate adaptation, sanitation, reconstruction, energy efficiency, and large needs that do not carry the glamour of emerging technologies but remain enormous nonetheless.
There is something economically uncomfortable about this. Industrial systems are very good at rewarding flow: units sold, revenue, growth, expansion, utilization. They are much less comfortable assigning value to readiness. A factory prepared to manufacture something that may only be needed three years from now looks unproductive for three years. A trained team kept available for exceptional conditions looks like a cost until the exception arrives.
Perhaps we need to distinguish unproductive capacity from latent capacity.
That distinction changes the image of the factory itself. Instead of imagining it only as a machine that should run continuously, we might also see it as a reservoir of possibility. Some lines produce, others rest, others are reconfigured, others dismantle what was previously produced. Industry stops operating purely as flow and begins to function as memory, reserve, and adaptation.
This resembles less a conventional circular economy than a respiratory one. Breathing is not continuous inhalation. It requires intake and release, expansion and contraction, exertion and recovery. An organism that only inhales is not breathing more efficiently. It is ceasing to breathe.
Economic systems may have a similar problem when growth becomes unable to tolerate its own phases of contraction. Producing less is immediately treated as failure, idle capacity as waste, slowdown as illness. The result is a structure that knows how to accelerate far better than it knows how to reduce speed.
A paradox follows. The more powerful the productive machine becomes, the greater the need to continuously find something that justifies its production. At some point, we are no longer producing only because demand exists. We also need to produce demand because capacity exists.
At that point, saturation no longer means simply that there are too many products. It may mean that there are too few economic destinations for an enormous productive power.
The next major industrial leap may therefore have less to do with producing even faster and more to do with making that power less rigid. Systems capable of increasing output when necessary, reducing it without collapse, preserving capacity, changing function, extending product life, dismantling when appropriate, and responding rapidly to unexpected shifts might look less impressive according to some traditional indicators while proving far more resilient.
The opposite of saturation, then, may not be growth.
It may be adaptability.
If so, a kind of industrial sublimation would not mean suppressing innovation or abandoning efficiency. It would mean recognizing that productive power does not always need to express itself as more units, more factories, and more markets. Capacity can remain powerful while changing object, rhythm, or purpose.
For two centuries, we have become extraordinarily good at turning scarcity into abundance. One of the next challenges may be learning what to do when abundance itself begins producing excess.
If this reframed how you see growth, innovation, and industrial capacity, follow the next essays.
Portuguese version available on Substack: https://nexhowledumampo.substack.com/p/o-futuro-pode-exigir-uma-especie?r=5tj4nj&utm_campaign=post&utm_medium=web&showWelcomeOnShare=true
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