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The 14 Anthropocene traps as a wheel of icons around Earth

The Anthropocene Traps

14 self-reinforcing patterns — global, technological, and structural — that are locking modern industrialised societies into a planetary polycrisis, and what it would take to navigate out of them.

Table of contents

A What is a polycrisis?

For most of human history, our crises came one at a time. A drought, a war, a plague — each was terrible, but each had a beginning and an end, and societies could marshal a response. In the 21st century, that has changed. We now live inside a tangle of crises that fuel each other: climate change worsens harvests, which worsens hunger, which worsens migration, which worsens political polarisation, which paralyses the climate response. The whole thing is a knot, and pulling on any single thread tightens the others.

Researchers have started to call this the polycrisis — a condition in which the world's major problems have become so interlocked that they can no longer be understood, let alone solved, in isolation. In 2023, an international team of researchers led by Peter Søgaard Jørgensen at the Stockholm Resilience Centre published a paper that asked a sharper version of the question: is the polycrisis a temporary mess, or have we accidentally locked ourselves into it?

Their answer borrows a concept from evolutionary biology — the trap. A trap, in this sense, is not a conspiracy or a moral failing. It is what happens when a behaviour that was once adaptive — a clever solution to a real problem — turns maladaptive at a new scale, but stays locked in because the systems around it have come to depend on it. Seabirds eating microplastics they mistake for plankton. People reaching for sugar because their ancestors evolved in environments where sugar was rare and precious. Whole civilisations doubling down on fossil fuels long after the costs have become obvious.

The paper identifies 14 such traps operating at the planetary scale — not metaphors, but specific, named, measurable patterns with growing evidence behind them. 12 of the 14 are already in advanced phases. 93% of the pairwise interactions between them are amplifying, not dampening: the traps are mostly making each other worse.

This page is a reference to that framework. It explains how the traps form, how to recognise the one you are inside, what the indicators show, and — crucially — what evolutionary biologists and resilience researchers think a way out might look like.

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B The framework in one breath

Every Anthropocene trap follows the same 4-phase arc. It begins with a useful innovation, scales up as the world becomes dependent on it, hides its growing costs behind distance and complexity, and finally clicks shut as 1 of 5 trapping mechanisms makes the trajectory exceedingly hard to reverse.

1Initiation
2Scaling
3Masking
4Trapping

A new trajectory begins

An innovation — a technology, an institution, a practice — solves a real problem and starts spreading.

Antibiotics, 1928: Fleming discovers penicillin. A killer of bacterial infections is born.

The world becomes dependent

The innovation globalises. Production systems, infrastructures, and daily lives reorganise around it. Dependencies deepen.

Antibiotics, 1950s–1990s: Hospitals, livestock farming and surgery come to rely on a steady pipeline of new drug classes.

The warning signs are hidden

Global connectivity, complexity, and shifting baselines hide the early signals that something is going wrong. Local feedback weakens.

Antibiotics, 2000s: Resistance spreads internationally faster than monitoring can detect it. Antibiotics are taken for granted.

A trapping mechanism activates

1 or more of 5 mechanisms makes leaving the trajectory exceedingly costly: constraints, conflict, tipping points, permanence, or scale mismatch.

Antibiotics, 2020s: Pan-drug-resistance looms; the entire health system is now built on the assumption antibiotics work.

The 4 phases of an Anthropocene trap, illustrated with the global rise of antibiotic resistance. Each of the 14 traps can be located in one of these phases. The framework currently places 12 of them in the trapping phase or close to it.

The 5 trapping mechanisms repay a moment of attention, because they are what makes an ordinary crisis into a trap:

  • Constraints. The system has lost the variety it would need to adapt. Lean, optimised supply chains snap under shocks they could once have absorbed.
  • Conflict. Actors are pulled toward incompatible local optima and can no longer cooperate to leave them — selfish states, selfish corporations, deadlocked negotiations.
  • Tipping points. A threshold is crossed that triggers cascading, self-amplifying change — and returning to the previous state requires a much larger reversal than the crossing did.
  • Permanence. The technology, knowledge or material persists. Nuclear weapons, once invented, cannot be uninvented. Long-lived chemicals stay in soils for centuries.
  • Scale mismatch. Local action no longer matches global consequence. A city composting its waste does not undo the global appetite that overheats the planet.
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C 3 families of traps

The 14 traps are not a flat list. They cluster into 3 families, each driven by a different underlying loop in human cultural evolution. Knowing the family helps you see why a particular trap is so hard to escape.

1–5

Global traps

Loop: multi-level selection drives larger social organisation → specialisation and growth → expanding resource needs → cooperation or conflict → more connectivity. Round and round.

These are the traps of scale itself. As human societies have grown larger and more cooperative, the very ingredients of that success — specialisation, growth, division, connectivity, and the resource throughput they require — have become the principal sources of planetary risk.

6–10

Technology traps

Loop: innovation creates new tools → tools are combined into ever-more-complex technologies → new technologies generate new problems → the response is to innovate more.

These are the traps of the technosphere. Humans have an unusual preference for solving environmental problems with new technology rather than by changing behaviour. Each generation of technology brings unintended consequences (lock-ins, novel chemicals, weapons, autonomy, information overflow) which then demand more technology to address.

11–14

Structural traps

Loop: the rate of global change outruns our information about it → baselines shift, distant interactions stay hidden → short-term, locally-rational behaviour propagates → the gap between local benefit and global cost keeps widening.

These are the traps of scale mismatch. They arise when the spatial, temporal, or informational scale at which we make decisions no longer matches the scale at which the consequences fall. They split into two subfamilies — Temporal (the pace of change runs faster than information about it) and Connectivity (cause and effect end up in different places) — and section F shows that most adaptive resilience capacities lean disproportionately against this cohort.

The 3 families — global, technology, and structural — each generated by a distinct self-reinforcing loop in cultural evolution.
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D The 14 traps

Homer named two — Charybdis and Scylla — between which Odysseus had to thread the strait of Messina. The cartographers of our own century have named fourteen.

What follows is each of those rocks in turn. Not fourteen separate storms, but fourteen self-reinforcing patterns — each a current that pulls a society deeper into the very behaviour that produced it. None is, in any single one of its parts, irrational. Each emerged from something that once worked, sometimes brilliantly. The plough that fed the village starves the soil of a continent. The deterrent that prevented a war seeds an arsenal that could end the species. The medium that knit a town together now severs reality from itself at the scale of a planet. That is what an evolutionary biologist means by a trap: a path that was adaptive on the way in and is hard to leave on the way out.

Each entry below gives a plain-language definition, the 4-phase arc with the current phase highlighted, the trend, the trapping mechanism that has clicked or is clicking shut, why it should matter to a non-specialist reader, and the strongest links it shares with its neighbours. Each card also carries a phase-banded sparkline of the trap's headline indicator where a peer-reviewed global time series exists; three by-design exceptions (Growth-for-Growth, Short-termism, Local Social Capital Loss) have no defensible global series, and in those cases the current-phase and current-trend pills carry the assessment on their own. The interactive simulation shows all fourteen pulling on one another at once.

The older names beneath each title — Monomorphia, Stasis, Talos, and the others — are from the companion essay The Anthropocene Strait, which reads the same fourteen rocks in Homer's register.

The 14 Anthropocene traps by current phase, grouped by family. Hover or tap a wedge to read the trap; click to jump to its entry below. GLOBAL TECHNOLOGY STRUCTURAL A B C D E F G H I J K L M N
  1. Simplification Specialisation breeds shock-prone systems · phase 4
  2. Growth-for-Growth Growth pursued past wellbeing's collapse · phase 4
  3. Overshoot Material growth overshoots Earth's limits · phase 4
  4. Division Cooperation falters; conflict rises · phase 3.5
  5. Contagion Connectivity amplifies pandemic contagion · phase 4
  6. Infrastructure Lock-in Sunk costs trap future choices · phase 3
  7. Chemical Pollution Persistent chemicals accumulate quietly · phase 4
  8. Existential Technology Arms races forge enduring weapons · phase 4
  9. Technological Autonomy Autonomous systems drift from needs · phase 2.5
  10. Disinformation Digital channels flood truth with noise · phase 3.5
  11. Short-termism Short-term gains crowd long futures · phase 4
  12. Overconsumption Distant production hides true costs · phase 3.5
  13. Biosphere Disconnect Urban life forgets living biosphere · phase 3.5
  14. Local Social Capital Loss Digital ties erode local fabric · phase 2.5
Where each trap currently sits on the four-phase arc, by family. 12 of 14 traps have already reached into the trapping phase; none remain strictly in initiation or scaling.
01 A barcode — stylised uniform stripes standing for mass production, optimisation, and the stripping-out of diversity.

Global trap

Simplification

Optimised systems are highly efficient, but they have shed the diversity they would need to absorb shocks.

Monomorphia from mónos (single) + morphḗ (form) — a world reduced to one shape.

Current phase
4 Start of trapping
Current trend
Growing
Trapping mechanism
Constraints
Indicator over time
Variance falling means national diets are converging — the trap getting worse.

Across the 20th century, food systems, supply chains, professions, even crops, became radically streamlined for efficiency. That streamlining made the global economy enormously productive — and stripped out the redundancy that lets complex systems absorb shocks. The same lean supply chain that delivers a phone overnight has no slack when a pandemic, a war, or a stuck container ship interrupts it.

  1. 1

    Initiation

    Specialisation and efficiency drive growth in early production systems.

  2. 2

    Scaling

    Globally homogenised systems emerge — 3 crops feed half the world's calories; a handful of corporations handle most of its container traffic.

  3. 3

    Masking

    Vulnerability is hidden by long, fast-moving supply chains; outages stay local until they don't.

  4. 4

    Trapping we are here

    Shocks to production ecosystems multiply (COVID, the Suez blockage, the Ukraine war). Undernourishment rises again after decades of decline. The lack of diversity itself becomes the obstacle to adapting — the trapping mechanism is constraints.

Why it matters to you

The food in your supermarket, the medicines in your cabinet, and the electronics in your pocket all rely on supply chains running close to capacity with very few backups. When one link breaks — and at this scale, links break — the shortage shows up on your shelf days later. A more diverse, modular world is slower and more expensive in normal times, and far more resilient in abnormal ones.

Top amplifying connections

  • Short-termism amplifies this trap Efficiency targets keep removing the “redundant” capacity that resilience needs.
  • Overconsumption amplifies this trap Promotes monoculture and uniformity, eroding cultural and biological diversity.
  • Infrastructure Lock-in this trap amplifies it Once the alternatives are gone, the dominant infrastructure becomes the only option.

Resilience capacities at play

Pushes back
  • Stabilization
  • Diversity & disturbance
  • Knowledge systems
  • Structure → function
Undermines
  • Envisioning futures
  • Gathering momentum
  • Diversity & disturbance
  • Expecting the unexpected
Ambiguous
  • Adoption
  • Cross-scale relationships

From the trap–capacity matrix in section F.

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02 An upward stock-market arrow — the iconic up-and-to-the-right shape of growth as a goal in itself.

Global trap

Growth-for-Growth

GDP keeps rising, wellbeing no longer keeps up, and switching to a different yardstick has become institutionally entrenched.

Pleonexia from pléon (more) + ékhein (to have) — the disposition to always have more than one's share; Plato and Aristotle's name for the master civic vice.

Current phase
4 Trapping
Current trend
Growing
Trapping mechanism
Constraints

For 2 centuries, economic growth was the most reliable engine of improving human welfare. But somewhere in the late 20th century the link between growth and wellbeing began to slip. In rich countries, more GDP no longer makes people noticeably happier; in the global financial system, almost every powerful actor — governments, pension funds, central banks, mainstream media — is wired to defend the growth model anyway.

  1. 1

    Initiation

    Industrial growth pulls hundreds of millions out of poverty; rising GDP and rising wellbeing track together.

  2. 2

    Scaling

    The growth model is exported worldwide; global institutions — IMF, WTO, the bond market — are organised around the assumption it will continue.

  3. 3

    Masking

    Speculative finance, ever-more-complex products, and shifting baselines hide the growing decoupling of growth and wellbeing.

  4. 4

    Trapping we are here

    Recurring financial crises (2008, COVID, the post-2022 shocks) cause severe wellbeing losses. Alternative metrics (Genuine Progress Indicator, Better Life, Happy Planet) exist but no major economy actually steers by them. Constraints and conflict keep the wheel turning.

Why it matters to you

Every time a government has to choose between protecting growth and protecting something else — a forest, a wage floor, a health system, a climate target — growth tends to win, even when wellbeing data say it shouldn't. Until that priority shifts inside the institutions that make decisions, no individual choice you make about consumption can reach the lever where the change has to happen.

Top amplifying connections

  • Overconsumption amplifies this trap A consumer economy needs growing material throughput to count as healthy.
  • Division amplifies this trap Competition between blocs makes any country that steps off the growth treadmill first the loser.
  • Overshoot this trap amplifies it Growth-as-goal systematically prices the biosphere at zero.

Resilience capacities at play

Pushes back
  • Envisioning futures
  • Gathering momentum
  • Selecting innovations
  • Adoption
  • Stabilization
Undermines
  • Envisioning futures
  • Gathering momentum
  • Selecting innovations
  • Adoption

From the trap–capacity matrix in section F.

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03 A pressure gauge — the dial that reads when a system has been pushed past its safe operating range.

Global trap

Overshoot

Humanity is drawing on Earth faster than Earth can replace what we take, and several of the meters are already in the red.

Hyperbasis from hypér (over, beyond) + baínein (to step) — a stepping-over, the transgression of a marked limit.

Current phase
4 Trapping
Current trend
Worsening
Trapping mechanism
Tipping points
Indicator over time

The biosphere has limits. The Planetary Boundaries framework identifies 9 of them — climate, biodiversity, freshwater, land, nutrients, novel entities, ocean acidification, ozone, aerosols — and most are now in the danger zone. Overshoot means we are no longer simply degrading the environment; we are pushing parts of the Earth system toward thresholds that, once crossed, cannot be uncrossed by slowing down.

  1. 1

    Initiation

    Resource extraction yields enormous economic and welfare benefits; the planet feels infinite.

  2. 2

    Scaling

    The Great Acceleration globalises consumption and material throughput; energy use, fertiliser use, and emissions all turn upward together.

  3. 3

    Masking

    Cheap substitutes, distant production, and a focus on GDP hide ecosystem collapses happening half a world away.

  4. 4

    Trapping we are here

    4 climate tipping elements are already at risk of tipping. Local ecosystems are visibly failing. The trapping mechanism — tipping points — means even rapid action can no longer prevent some changes; only the worst can still be avoided.

Why it matters to you

Every system you depend on — water, food, weather, coastlines, fisheries, forests — sits on top of a biosphere that is being asked to do too much. Some of what is being lost (a tipped ice sheet, an extinct species, a destabilised monsoon) will not be repaired on any human-timescale future. The next few decades determine how much of the damage stays reversible.

Top amplifying connections

  • Growth-for-Growth amplifies this trap An economy of perpetual increase has no built-in place to stop.
  • Overconsumption amplifies this trap Material demand from rich countries drives extraction in poorer ones.
  • Short-termism amplifies this trap Long-tail planetary risks are systematically discounted in present-day decisions.

Resilience capacities at play

No capacity in the 23-capacity toolkit directly pushes back on this trap. Every defence has to come from the general-purpose evolvability work in the next section.

Undermines
  • Routinization
  • Stabilization

From the trap–capacity matrix in section F.

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04 A brick wall — the universal sign of partition between people who could otherwise cooperate.

Global trap · Hub

Division

A planetary crisis needs planetary cooperation just as the cooperation infrastructure built after 1945 starts to fray.

Stasis from hístēmi (to stand) — Thucydides' clinical name for civil war: a faction standing against the city.

Current phase
3-4 Masking → start of trapping
Current trend
Long-term decline, recently growing
Trapping mechanism
Conflict
Indicator over time

Human cooperation has been the great evolutionary story of the species — from band to tribe to city to nation to alliance. But that ratchet has historically required a shared identity, usually a shared enemy. At the planetary scale, neither exists. Without a global “us,” nations and blocs default to local optimisation, and the institutions designed to coordinate (UN, WTO, climate treaties) lose authority just when they are needed most.

  1. 1

    Initiation

    International institutions (UN, Bretton Woods, GATT) successfully prevent another world war and underwrite postwar prosperity.

  2. 2

    Scaling

    Global cooperation drives global economic growth, but the gains are unequally distributed.

  3. 3

    Masking

    Friction with other traps — overshoot, pandemic, inequality — strains the cooperation infrastructure faster than it can adapt; institutions look intact but are losing legitimacy.

  4. 4

    Trapping we are here

    Open conflict between major blocs or a new isolationism; collapse of the post-1945 cooperation infrastructure. The trapping mechanism is conflict — no shared selection pressure favours cooperation at the planetary scale.

Why it matters to you

Climate, pandemics, AI safety, financial stability, biodiversity — none of these can be solved by any single country, however virtuous. When global cooperation thins, every other trap on this page gets harder to escape. The paper identifies Division as 1 of 4 hub traps — addressing it would weaken many of the others at once.

Top amplifying connections

  • Overshoot this trap amplifies it Without binding climate, biodiversity, or chemical treaties, planetary boundaries cannot be respected.
  • Existential Technology this trap amplifies it Rival powers race to acquire deterrents, multiplying the chance of catastrophic use.
  • Disinformation this trap amplifies it States and their proxies weaponise information against each other, eroding shared reality.

Resilience capacities at play

Pushes back
  • Gathering momentum
  • Learning
  • Cross-scale dynamics
Undermines
  • Gathering momentum
  • Learning
  • Adoption
  • Cross-scale relationships
  • Cross-scale dynamics

From the trap–capacity matrix in section F.

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05 A coronavirus particle — the literal face of the pandemic shock that defines this trap in living memory.

Global trap

Contagion

A hyper-connected world moves pathogens as fast as it moves goods — and we keep finding out after the fact.

Loimos plague — the word Apollo's arrows bring down on the Greek camp in the first book of the Iliad; paired in archaic Greek with limós, famine.

Current phase
4 Trapping
Current trend
Growing
Trapping mechanism
Constraints
Indicator over time
Decadal data; line interpolated between decade midpoints.

International trade and travel have lifted billions of people, but they have also turned the planet into a single epidemiological surface. A virus that spills from a wet market or a bat cave can now reach every continent in days. COVID-19 was not an aberration; it was a sign of how the system now behaves under stress. HIV, H1N1, and the slow-burning antimicrobial-resistance pandemic all suggest that similar shocks are not exceptional.

  1. 1

    Initiation

    Trade and travel grow rapidly, driving productivity, exchange, and exposure to new pathogens.

  2. 2

    Scaling

    Container shipping and intercontinental aviation make any city reachable from any other in 24 hours.

  3. 3

    Masking

    Vulnerability is real but invisible; spillover events and gain-of-function research are poorly monitored.

  4. 4

    Trapping we are here

    COVID demonstrated the trap, and post-pandemic monitoring and treaty work has produced little. Trade and travel are now load-bearing infrastructure; reporting incentives between states are misaligned. The trapping mechanisms — constraints and conflict — keep the system exposed.

Why it matters to you

The next pandemic is not a matter of if. The combination of trade, travel, encroachment on wildlife, and antibiotic overuse keeps loading the dice. The question is how much earlier we will see it, how quickly we will share what we see, and whether vaccines and treatments will reach everyone — not just the rich countries that produce them.

Top amplifying connections

  • Overshoot amplifies this trap Habitat destruction pushes humans, livestock, and wildlife into denser contact zones.
  • Division amplifies this trap Uncoordinated state responses, fights over origins, and unequal vaccine access slow every response.
  • Short-termism amplifies this trap Preparedness budgets keep getting cut between pandemics, when they would matter most.

Resilience capacities at play

Pushes back
  • Adoption
  • Cross-scale relationships
  • Matching scales
  • Cross-scale dynamics

From the trap–capacity matrix in section F.

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06 An oil-field pumpjack — the long-lived fossil infrastructure that keeps drawing returns long after its costs are clear.

Technology trap

Infrastructure Lock-in

Power plants, highways, pipelines, and grids built over decades shape what is possible for decades more — even after they stop making sense.

Anankē Necessity itself — a primordial force in the pre-Socratics, a goddess in Orphic cosmogony; the constraint even Zeus cannot bend.

Current phase
3 Masking
Current trend
Mixed
Trapping mechanism
Constraints
Indicator over time

A coal plant is a 40-year commitment. A motorway is permanent. A natural-gas distribution network can outlive the company that built it. These infrastructures were rational when they were chosen, but they bind future generations to fuels, geometries, and operating models the original planners cannot revisit. Replacing them is technically feasible — and politically, financially, and physically slow.

  1. 1

    Initiation

    New infrastructure technologies (railways, electricity, motorways, data centres) are highly adaptive and innovative.

  2. 2

    Scaling

    Global infrastructures deliver large global benefits and homogenise the systems that depend on them.

  3. 3

    Masking we are here

    Continued investment in fossil-based assets even as their climate vulnerability is documented; clean-energy investment now matches fossil investment for the 1st time, but the existing stock remains.

  4. 4

    Trapping

    Suboptimal infrastructure persists because replacing it is politically or economically unfeasible. The trapping mechanism is constraints — the asset itself becomes the obstacle to changing the asset.

Why it matters to you

Most of the emissions that will warm the next century are already locked into infrastructure that exists today, or is being built right now. Slowing climate change is partly a question of deciding which steel mills, power plants, and highways will be retired early — and which will simply not be built in the 1st place.

Top amplifying connections

  • Short-termism amplifies this trap Long payback periods are systematically disfavoured; cheap, high-carbon options keep winning.
  • Overconsumption amplifies this trap Sustained material demand keeps high-throughput infrastructure profitable.
  • Overshoot this trap amplifies it Costly stranded-asset transitions delay every climate, pollution, and biodiversity response.

Resilience capacities at play

Pushes back
  • Selecting innovations
  • Adoption
  • Routinization
  • Structure → function
Undermines
  • Adoption
  • Routinization
  • Expecting the unexpected

From the trap–capacity matrix in section F.

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07 An industrial oil barrel — shorthand for the bulk chemicals that have moved through, and out of, the world economy.

Technology trap

Chemical Pollution

We invent novel molecules faster than we test them, and many of them never leave the soil, water, or our bodies.

Miasma from miaínō (to defile, to stain) — ritual and physical pollution; in Sophocles, the invisible blight that clings to a land until cleansing.

Current phase
4 Start of trapping
Current trend
Mixed — some pollutants down, novel entities rising
Trapping mechanism
Permanence
Indicator over time

Industrial chemistry has been one of the most extraordinary engines of welfare in human history: antibiotics, fertilisers, plastics, refrigerants, semiconductors. It has also released roughly 350,000 manufactured substances into the environment, most untested for long-term ecological or health effects. The planetary boundary for novel entities is one of the most clearly transgressed of the 9. PFAS, microplastics, and pesticide residues are now globally distributed in living tissue, including yours.

  1. 1

    Initiation

    Discovery of novel compounds — antibiotics, nitrogen fertilisers, plastics — yields enormous medical and agricultural gains.

  2. 2

    Scaling

    Production and distribution globalise; total chemical output increases by orders of magnitude through the 20th century.

  3. 3

    Masking

    Long-tail risks are buried in complexity; regulation chases past harms while production of new compounds outruns assessment.

  4. 4

    Trapping we are here

    Compounds persist in soils, oceans, and bodies; pan-drug-resistant bacteria evolve. Reversal is constrained by the permanence of long-lived pollutants and the risk of crossing biological tipping points.

Why it matters to you

Most of the chemicals you encounter daily — in food packaging, cleaning products, cosmetics, water — have not been tested for long-term, multi-substance interaction. Some that have been studied (PFAS, certain phthalates) are now known to affect fertility, hormones, and immunity at exposures below previously assumed safe levels. The clean-up bill, and the health bill, will be paid by people not yet born.

Top amplifying connections

  • Overconsumption amplifies this trap Disposable goods generate continuous waste and pollution streams.
  • Short-termism amplifies this trap Long-tail toxicity is systematically discounted relative to next-quarter performance.
  • Overshoot this trap amplifies it Chemical pollution itself transgresses a planetary boundary — novel entities.

Resilience capacities at play

Pushes back
  • Selecting innovations
  • Learning
  • Structure → function

From the trap–capacity matrix in section F.

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08 A nuclear bomb — the original example, and still the clearest, of a technology that cannot be uninvented.

Technology trap

Existential Technology

Some technologies, once invented, cannot be uninvented — and the longer the world holds them, the longer the queue of moments they could be used in.

Olethros from óllymi (to destroy) — destruction without remainder; in Homer, the word for being annihilated rather than merely killed.

Current phase
4 Start of trapping
Current trend
Warhead counts down, capability spreading
Trapping mechanism
Permanence
Indicator over time

A handful of technologies are capable of ending civilisation on the timescale of an afternoon: nuclear weapons most clearly, but increasingly also engineered pandemics, autonomous weapon systems, and certain trajectories in advanced AI. Each was developed with reasons that seemed compelling at the time. Each is now a permanent feature of human existence. The deterrence logic that justifies them assumes a never-failing chain of rational decisions, lasting forever.

  1. 1

    Initiation

    Nuclear research begins under national-security imperatives in the 1940s.

  2. 2

    Scaling

    Cold War arms race; warhead counts climb past 60,000; 9 states acquire the capability.

  3. 3

    Masking

    Project secrecy hides risks of accident and near-miss; deterrence theory crowds out disarmament conversation.

  4. 4

    Trapping we are here

    Reductions slow; modernisation programmes expand. New existential-class technologies (advanced AI, engineered pathogens) join the list. The trapping mechanism is permanence — neither the knowledge nor the materials can be deleted.

Why it matters to you

Most of the time, this trap does nothing. The danger is exactly that. Risks compound across decades — every year is another roll of dice that includes accident, miscalculation, deliberate use, and the slow normalisation that follows every near-miss. The Bulletin of the Atomic Scientists' Doomsday Clock now sits closer to midnight than it has at any point in its 78-year history.

Top amplifying connections

  • Division amplifies this trap Rival blocs acquire and modernise as deterrents against each other.
  • Technological Autonomy amplifies this trap Autonomous combat systems and decentralised biotech expand the menu of existential-class capability.
  • Growth-for-Growth amplifies this trap Technology-as-export logic puts dual-use capabilities into more hands than before.

Resilience capacities at play

Pushes back
  • Selecting innovations
  • Learning
Undermines
  • Stabilization
Ambiguous
  • Adoption

From the trap–capacity matrix in section F.

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09 An industrial robot arm — a self-actuating system whose decisions the affected humans cannot inspect.

Technology trap · Hub

Technological Autonomy

Systems that act on their own — algorithms, recommendation engines, increasingly AI agents — are now woven into decisions the affected humans cannot inspect.

Talos Τάλως — the bronze giant Hephaestus forged to circle Crete three times a day; the first machine in the Greek imagination to act on its own.

Current phase
2-3 Scaling → masking
Current trend
Growing rapidly
Trapping mechanism
Permanence
Indicator over time

From credit scoring to social-media feeds to hiring filters to driving, more and more decisions are now made by systems whose internal logic no human reviews. These systems are often more accurate than the humans they replaced, and almost always faster. They are also opaque, brittle in unfamiliar situations, and economically irreversible — once a sector has automated, the human expertise it replaced is no longer there to come back. Recent advances in generative AI have accelerated this trajectory dramatically.

  1. 1

    Initiation

    Automation creates cost savings and productivity gains; early industrial robotics and software.

  2. 2

    Scaling

    Autonomous systems span globally connected functions — markets, logistics, search, content, transport, increasingly research itself. AI investment grew from roughly $5 billion to $176 billion in a decade.

  3. 3

    Masking we are here

    Black-box failures (algorithmic bias, content polarisation, hallucination) are documented but rarely change the deployment trajectory.

  4. 4

    Trapping

    AI-driven systems become unswitch-off-able; their permanence is the trapping mechanism. Misalignment or misuse at sufficient capability levels could be catastrophic and uncorrectable.

Why it matters to you

A growing share of the decisions that affect your life — what news you see, what jobs you are shortlisted for, what loan terms you are offered, what your doctor reads about you — is being delegated to systems neither you nor anyone you can complain to fully understands. Technological Autonomy is a hub trap: it amplifies disinformation, division, existential technology, and short-termism at once.

Top amplifying connections

  • Existential Technology this trap amplifies it Autonomous weapon systems and decentralised biotech are now plausible.
  • Division this trap amplifies it Engagement-maximising algorithms have measurably destabilised politics in several countries.
  • Local Social Capital Loss this trap amplifies it Algorithmic feeds compete with — and win against — time spent with neighbours.

Resilience capacities at play

Only one capacity in the toolkit directly addresses this trap. Whatever pushes back against an AI system that has drifted from human needs is not yet a settled corpus.

Pushes back
  • Selecting innovations
Ambiguous
  • Sensemaking
  • Envisioning futures
  • Knowledge systems

From the trap–capacity matrix in section F.

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10 A megaphone — the amplifier that lets one voice, true or false, outweigh many.

Technology trap

Disinformation

A communication system optimised for engagement turned out to be optimised for outrage, and shared reality is harder to maintain than it used to be.

Apatē deceit, fraud, trickery — and the dark daughter of Night in Hesiod's Theogony, sister to Strife and Old Age.

Current phase
3-4 Masking → start of trapping
Current trend
Growing
Trapping mechanism
Permanence
Indicator over time
Index falling means false information is spreading more — the trap getting worse.

The same digital platforms that gave anyone in the world a voice also gave anyone — including bad-faith actors, foreign intelligence services, and chatbot farms — the ability to amplify any voice. Falsehoods travel faster than corrections. Algorithmic recommendation funnels people into worldviews where contrary evidence rarely arrives. Trust in expertise — in medicine, in science, in elections — is unevenly but seriously eroded across many democracies.

  1. 1

    Initiation

    Internet expansion lowers the cost of publishing information to near zero.

  2. 2

    Scaling

    Digital platforms and social media consolidate; smartphones place a global publishing tool in 5 billion pockets.

  3. 3

    Masking

    Trusted intermediaries are crowded out; the speed and scale at which disinformation propagates outruns fact-checking and regulation.

  4. 4

    Trapping we are here

    Communities live in incompatible realities; common ground becomes impossible. The trapping mechanisms are the permanence of the underlying technology and the conflict between actors who use it.

Why it matters to you

When citizens of the same country cannot agree on what is true, democracies cannot function as choosing mechanisms. When countries cannot agree on what is true, treaties — including climate treaties — cannot be negotiated. The collective ability to act on any of the other traps depends on a shared information environment, which is the resource this trap consumes.

Top amplifying connections

  • Division amplifies this trap Adversarial states fund campaigns to weaken each other's public spheres.
  • Technological Autonomy amplifies this trap Generative AI now produces synthetic disinformation at near-zero cost.
  • Division this trap amplifies it The falsehoods then deepen the divisions that spawned them — a closed loop.

Resilience capacities at play

Pushes back
  • Sensemaking
  • Selecting innovations
  • Learning
  • Process knowledge
Undermines
  • Sensemaking
  • Learning
  • Knowledge systems
  • Process knowledge

From the trap–capacity matrix in section F.

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11 An hourglass — time running out on a horizon that decisions of today refuse to look across.

Structural trap · Temporal · Hub

Short-termism

Quarterly results, election cycles, attention spans of weeks — humans and our institutions discount the future steeply, and the future is now arriving.

Brachychronia from brakhús (short) + khrónos (time) — a foreshortened time, the opposite of makrochronía, long-time-thinking.

Current phase
4 Start of trapping
Current trend
Growing
Trapping mechanism
Scale mismatch

Humans evolved in environments where the next harvest, the next migration, the next winter mattered more than the next century. Modern institutions inherited that bias and added their own — quarterly earnings, 4-year political cycles, recommendation algorithms that reward immediate clicks. The result is a civilisation that systematically prefers small payoffs now to large payoffs later, even when later is decisive. Climate change, pandemic preparedness, biodiversity loss, and AI safety all have this profile.

  1. 1

    Initiation

    Short-term focus drives postwar growth; pursuing immediate gains aligns well with rebuilding.

  2. 2

    Scaling

    Globalisation and financialisation institutionalise short-term metrics across business and government.

  3. 3

    Masking

    Long-term costs are absorbed by complex supply chains, distant ecosystems, and future generations — invisible to today's decision-maker.

  4. 4

    Trapping we are here

    Cascading long-term problems feed each other; the polycrisis is partly the consequence of decades of short-term-best choices. The trapping mechanism is scale mismatch — the timescales at which we decide and the timescales at which we pay are no longer aligned.

Why it matters to you

Almost every other trap on this page is amplified by short-termism. It is a hub trap — 1 of 4 with 8 or more amplifying connections to other traps. Tackling it (through long-term pension liabilities, intergenerational accountability, future-generations commissioners, no-regrets policy) would weaken much of the rest of the network at once.

Top amplifying connections

  • Overshoot this trap amplifies it Long-tail planetary risks fall outside the planning horizon.
  • Infrastructure Lock-in this trap amplifies it Long-payback alternatives lose to cheaper, dirtier defaults.
  • Biosphere Disconnect amplifies this trap When nature is invisible, its long-term degradation is even easier to ignore.

Resilience capacities at play

Pushes back
  • Matching scales
  • Cross-scale dynamics
  • Social-ecological memory
  • Social memory
  • Ecological memory
Undermines
  • Matching scales
  • Cross-scale dynamics
  • Social-ecological memory
  • Social memory
  • Ecological memory

From the trap–capacity matrix in section F.

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12 A shopping cart — the everyday instrument through which household demand reaches the global supply chain.

Structural trap · Connectivity · Hub

Overconsumption

Distant production lets people in rich countries consume far beyond local means without ever seeing what it costs.

Polyphagia from polú (much) + phageîn (to eat) — gluttony as a bodily category; in medicine still the technical name for pathological hunger.

Current phase
3-4 Masking → start of trapping
Current trend
Growing
Trapping mechanism
Scale mismatch
Indicator over time

Modern life splits production from consumption across continents. The clothes, electronics, food, and fuel a household uses arrive from places they will never see, leaving the social and ecological costs somewhere else. This was the trick that made 20th-century affluence possible — and it is also the trick that makes the affluence look sustainable when it is not. Material footprints in rich countries continue to exceed domestic consumption, and absolute decoupling between growth and footprint has not happened anywhere.

  1. 1

    Initiation

    Globalised supply chains deliver previously unaffordable goods and services to vast populations.

  2. 2

    Scaling

    Consolidation of international trade as the default way to access cheap material throughput.

  3. 3

    Masking

    Environmental and labour harms are concentrated at distant points of production; consumers see only the product.

  4. 4

    Trapping we are here

    Global consequences are obvious but local incentives keep driving the behaviour; overconsumption forces wide-scale ecosystem change and migration. The trapping mechanism is scale mismatch — local consumption cannot be reconciled with global consequence by anyone acting alone.

Why it matters to you

Overconsumption is one of four hub traps identified in the paper. It is the demand-side counterpart to Overshoot — and the lever through which a household's day-to-day choices touch global systems. The honest version is uncomfortable: most material decoupling that high-income economies celebrate is the outsourcing of production, not a real reduction in footprint.

Top amplifying connections

  • Growth-for-Growth amplifies this trap Consumer economies need rising material throughput to count as healthy.
  • Short-termism amplifies this trap Current pleasure dominates against far-off harm.
  • Overshoot this trap amplifies it Material demand drives extraction, land conversion, and emissions.

Resilience capacities at play

Pushes back
  • Matching scales
  • Cross-scale dynamics

From the trap–capacity matrix in section F.

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13 A terrarium under glass — nature reduced to a contained ornament, a stand-in for urban life's mediated relationship with the biosphere.

Structural trap · Connectivity

Biosphere Disconnect

A majority of humans now live in cities and spend their lives away from the ecosystems that quietly sustain them.

Aphysia from the privative a- (without) + phúsis (nature, that which grows of itself) — un-nature; severance from the world whose ongoing growth is the condition of our own.

Current phase
3-4 Masking → start of trapping
Current trend
Growing
Trapping mechanism
Scale mismatch
Indicator over time

For the 1st time in the species' history, most humans live in cities. Urban life delivers enormous benefits — health, opportunity, density of ideas — but it also separates daily experience from the soils, forests, watersheds, and pollinators that make daily life possible. What is invisible is hard to defend. Children who never see a forest grow into voters who do not miss it.

  1. 1

    Initiation

    Urbanisation accompanies structural change in agriculture and industry; cities concentrate productivity.

  2. 2

    Scaling

    More than half the global population lives in urban areas by 2007; the share continues to climb.

  3. 3

    Masking

    Ecosystem services arrive packaged — water from a tap, food from a shelf — making their biospheric origin abstract.

  4. 4

    Trapping we are here

    Apathy and inaction on biosphere decline persist even as urban dwellers themselves lose the benefits. The trapping mechanism is scale mismatch — the spatial gap between consumption and ecosystem cannot be closed by individual urban behaviour.

Why it matters to you

Almost every solution to the biodiversity crisis assumes a public that cares enough to demand it. Biosphere Disconnect quietly drains that constituency. It also amplifies short-termism — people who do not see a river cannot reasonably grieve its dying — which makes it a structural enabler of many other traps.

Top amplifying connections

  • Overconsumption amplifies this trap Material throughput corresponds tightly to urban concentration.
  • Short-termism this trap amplifies it When nature is invisible, its slow degradation is even easier to discount.
  • Overshoot this trap amplifies it Invisibility of consequences makes overshoot politically inexpensive.

Resilience capacities at play

Pushes back
  • Matching scales
  • Cross-scale dynamics
  • Social-ecological memory
  • Social memory
  • Ecological memory
  • Process knowledge
Undermines
  • Social-ecological memory
  • Social memory
  • Ecological memory
  • Process knowledge

From the trap–capacity matrix in section F.

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14 A hand scrolling a smartphone — the activity now displacing the in-person interactions that built local trust.

Structural trap · Connectivity

Local Social Capital Loss

Digital connection has scaled up while neighbourly connection has thinned out, and societies are losing the trust that local life used to manufacture.

Aphilia from the privative a- (without) + philía (friendship, civic affection) — friendlessness; in Aristotle, the condition of a city that no longer holds together.

Current phase
2-3 Scaling → masking
Current trend
Mainly growing
Trapping mechanism
Scale mismatch

Social capital — the slow accumulation of trust, reciprocity, and “I know who to ask” between people who share a place — is one of the most under-measured forms of wealth a society holds. Digitalisation has expanded weak ties dramatically while undercutting the strong, repeated, in-person interactions that build the more demanding kind of trust. Loneliness, distrust in institutions, and polarisation are all rising together.

  1. 1

    Initiation

    Information and communication technology delivers large productivity and wellbeing gains; people stay in touch across distances that would once have been final.

  2. 2

    Scaling

    Digital connectedness becomes the default; smartphones, social media, and remote work reshape daily interaction at planetary scale.

  3. 3

    Masking we are here

    Mental-health, polarisation, and trust indicators worsen; causation is contested, but the correlations keep coming in.

  4. 4

    Trapping

    Online social capital does not effectively substitute for the offline kind it displaces. The trapping mechanism is scale mismatch between the global communication system and the local trust it competes with.

Why it matters to you

Almost every act of collective response to a trap — voting, organising, mutual aid, professional norms, the willingness to compromise — runs on local social capital. As that capital erodes, every other trap becomes harder to address. It is the structural foundation of “we” — and “we” is what the polycrisis requires.

Top amplifying connections

  • Technological Autonomy amplifies this trap Engagement-maximising feeds compete directly with neighbourly time.
  • Disinformation amplifies this trap When trust in institutions falls, manipulated narratives fill the vacuum.
  • Disinformation this trap amplifies it Eroded local trust then makes communities more susceptible to the next round of falsehoods — a closed loop.

Resilience capacities at play

Pushes back
  • Gathering momentum
  • Matching scales
  • Cross-scale dynamics
Undermines
  • Gathering momentum

From the trap–capacity matrix in section F.

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E The polycrisis as a network

The traps do not sit in 14 separate boxes; they push and pull on each other. The source paper assessed all 182 possible pairwise interactions, finding that 87 are non-neutral — and of those, 93% are amplifying (one trap making another worse) while only 7% are dampening.

4 traps stand out as hubs — they amplify many others and tend to show up wherever the polycrisis is most acute: Division, Short-termism, Overconsumption, and Technological Autonomy. Addressing any one of them would weaken multiple downstream traps.

Each row is a source trap (the one doing the pushing); each column is a target trap (the one being pushed). The diagonal is left blank because a trap does not interact with itself, and blank cells mark pairs assessed as neutral. 87 of the 182 possible directed pairs are non-neutral; the strong red dominance is the visual restatement of a hard finding — the traps mostly make each other worse.
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F How resilience meets the traps

A trap is only a trap until something pushes back. The uncomfortable question is whether the things societies already know how to do — coping through change, deliberately transforming themselves — are up to the job of navigating the polycrisis we're already inside.

Take the 23 capacities that resilience research has identified — 14 for adapting, 9 for transforming — and ask, for each of the 14 traps, whether the capacity helps, whether the trap weakens it, or both. Of the 322 possible interactions, 72 turn out to be real. They fall into four kinds, and the balance between those four is the story of this section.

  1. Addressed

    The capacity has clear potential to prevent the trap or contain its consequences.

  2. Coevolutionary race

    Bidirectional: the capacity pushes back on the trap, but the trap is also undermining the capacity. Both are running to stay in place.

  3. Threat

    The trap erodes the capacity, without the capacity pushing back.

  4. Other

    Ambiguous or context-dependent: the same capacity can both help and hurt depending on how it is expressed.

  • 10 of 14 traps actively undermine resilience capacities, threatening 18 of 23 of them.
  • All 9 of 9 transformative capacities are under threat — every single one is challenged by at least one trap.
  • 70% of trap-on-capacity threats are bidirectional races: the defence and the trap are evolving against each other.
  • Overshoot has no capacity directly addressing it; Technological autonomy has 1. These are the two under-defended traps in the current toolkit.

The 23 things a society can do to push back

Here is the part of the story that is genuinely hopeful: we are not starting from zero. Resilience research has spent two decades watching how communities, institutions and whole societies absorb shocks, rebuild, and sometimes deliberately remake themselves. From that work, twenty-three capabilities stand out clearly enough to be named and built on. None of them require a new technology or a single heroic actor — they are habits of organising ourselves that already exist somewhere, in some form, and can be grown.

They split into two complementary kinds. Adaptive capacities are the everyday work of staying upright through change — keeping options open, learning as you go, remembering what worked last time, expecting surprises. Transformative capacities are different in kind: they are how a society decides the current path itself is the problem and steers onto a new one — naming what is broken, imagining alternatives, backing the ones with promise, scaling what works, and locking the new pattern into law, infrastructure and habit.

The good news is that these two kinds cover each other's blind spots. Transformative capacities do most of the work against the big global and technology traps, where the answer is to change the system itself. Adaptive capacities hold the line against the temporal and structural traps — short-termism, biosphere disconnect, the quiet erosion of local social ties — where the pace and reach of modern life have simply outrun our ability to keep up. Neither set alone is enough. Together, they are a serious toolkit.

Each card below names one capacity in plain language, with the original research term kept underneath for traceability. The small markers on the right say how many of the 14 traps this capacity pushes back on (teal), how many it is locked in a two-way struggle with (purple), and how many can erode it if it is not actively defended (red).

Adaptive capacities

Folke, Colding & Berkes 2003 — 14 capacities for persisting through change

A1 Self-organization
  • Keeping many options alive
    Diversity and disturbance
    Resisting the urge to optimise everything down to one best way of doing things — multiple varieties, methods and approaches give a system room to bend instead of break.
    1
  • Connecting the small to the large
    Cross-scale dynamics
    Seeing how a neighbourhood, a city and an international body move together, and acting at whichever scale the real leverage sits.
    4 2
  • Governing at the right size
    Matching scales
    Building institutions that fit the problem — global problems need global rules, watershed problems need watershed councils, neighbourhood problems need neighbours.
    4 1
  • Watching the wider horizon
    External drivers
    Tracking the forces beyond your own walls — global markets, distant emissions, far-away conflicts — so you are not blindsided by what you did not think to look at.
A2 Knowledge and learning
  • Trusting both data and lived experience
    Experiential and experimental knowledge
    Combining what scientists measure in studies with what farmers, healers and workers learn from doing the same thing for forty years.
  • Asking what a thing actually does
    Structure to function
    Going beyond mapping how a system is built to understanding what it produces in practice — including the consequences nobody designed in.
    3
  • Building know-how into institutions
    Process knowledge
    Putting hard-won understanding of how things actually unfold into laws, agency mandates and standard procedures, so it does not vanish when the person who learned it retires.
    2
  • Bringing different ways of knowing together
    Knowledge systems
    Treating Indigenous knowledge, scientific knowledge, local expertise and craft skill as complementary sources of truth rather than rivals.
    1 1 1
A3 Diversity for reorganization and renewal
  • Keeping the living past alive
    Ecological memory
    Protecting the seeds, species, soils and habitats that hold the biological information any future regeneration will need to draw on.
    2
  • Remembering how we got through last time
    Social memory
    Preserving the stories, archives and institutional habits that record what we tried in past crises, what worked, and what we paid for the lessons.
    2
  • Remembering ourselves in nature
    Social-ecological memory
    Holding on to the lived understanding of how a community and its land have shaped each other — knowledge no library can fully replace once the relationship is gone.
    2
A4 Living with change and uncertainty
  • Stirring the pot on purpose
    Disturbance evoking
    Deliberately introducing small, manageable shocks — controlled burns, stress tests, civic exercises — so the system stays limber instead of seizing up.
  • Mining crises for lessons
    Crisis learning
    Treating every pandemic, fire season and financial collapse as a curriculum, and changing how we operate before the next one arrives.
  • Expecting the unexpected
    Disturbance living
    Designing buildings, supply chains, neighbourhoods and budgets on the assumption that things will go wrong — because they will.
    2

Transformative capacities

ML Moore et al. 2014 — 9 capacities for deliberately shifting trajectory

T1 Preparing for change
  • Naming what is actually broken
    Sensemaking
    Doing the patient analytical work of figuring out which deep structures — incentives, ownership patterns, default assumptions — are driving the trouble, before reaching for fixes.
    1 1
  • Imagining better futures, in detail
    Envisioning
    Generating concrete, livable pictures of how a different society could work — not vague hope, but designs specific enough that people can see themselves living in them.
    1 1 1
  • Building coalitions of the willing
    Momentum
    Pulling together networks of people, organisations and protected pilot projects where new ideas can be tested out of reach of incumbent resistance.
    3 1
T2 Navigating the transition
  • Backing the right bets
    Selecting
    Deciding — collectively, with foresight — which innovations and reforms deserve serious investment, and which would only deepen the trap if scaled.
    5 1
  • Evaluating honestly and adjusting
    Learning
    Checking what the pilots actually produced, sharing the findings widely, and being willing to update both the plan and the people running it.
    2 2
  • Scaling what works
    Adoption
    Moving promising solutions from a handful of pilots to a thousand cities — the unglamorous, decade-long work of replication, training and infrastructure roll-out.
    1 2 1 2
T3 Institutionalizing new trajectory
  • Making the new way normal
    Routinization
    Embedding the change in everyday rules, budgets and habits, so it keeps running once the original champions have moved on.
    1 1
  • Stitching local wins into systems
    Cross-scale relationships
    Linking what works in one place into networks that connect cities, nations and international bodies, so a local solution can grow into a planetary norm.
    1 1 1
  • Holding the new ground
    Stabilization
    Defending the new arrangement against the predictable backlash from those who lost power in the shift, while staying flexible enough to handle whatever comes next.
    2 2

Where each trap meets each capacity

What happens if you take all 14 traps, all 23 capacities, and ask — for every single pair — whether one is pushing on the other? You get a map of where our defences exist, where they're being chewed from underneath, and where there is no defence at all.

Read it like a calendar grid: a trap on every row, a capacity on every column. Each filled cell is one relationship — a capacity that pushes back on this trap (teal), a trap that erodes this capacity (red), a two-way struggle in which both are happening at once (split purple), or an ambiguous case where it depends on context (grey). Blank cells are pairs that don't directly interact. Hover any colour to read the rationale; click to jump to the trap.

Two things are worth staring at. The first is the colour balance: there is much more teal-and-purple than plain red — most defences exist, they are simply contested. The second is what is missing: the Overshoot row, for one, is conspicuously empty.

Diversity & disturbance
Cross-scale dynamics
Matching scales
External drivers
Experiential knowledge
Structure → function
Process knowledge
Knowledge systems
Ecological memory
Social memory
Social-ecological memory
Evoking disturbance
Learning from crisis
Expecting the unexpected
Sensemaking
Envisioning futures
Gathering momentum
Selecting innovations
Learning
Adoption
Routinization
Cross-scale relationships
Stabilization
Simplification
Growth-for-Growth
Overshoot
Division
Contagion
Infrastructure Lock-in
Chemical Pollution
Existential Technology
Technological Autonomy
Disinformation
Short-termism
Overconsumption
Biosphere Disconnect
Local Social Capital Loss
Adaptive capacities (left half) lean against the structural traps; transformative capacities (right half) lean against the global and technology traps. This split is genuinely good news — the two kinds of capacity cover each other's blind spots. The near-empty Overshoot row is not.
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G Evolvability — the way out

A trap, by definition, resists individual effort. So the framework closes on a single unifying idea borrowed from evolutionary biology: evolvability, the capacity of a system to change itself. For human societies, five higher-level capacities matter — not as a checklist, but as a set of conditions any serious response must meet.

Each one rests on specific working capacities from the section above, and all of them — adaptive, transformative, evolvability — can be sorted under five cross-cutting evolutionary processes. Each entry below carries those links in its footer.

  1. a Recognise the traps

    We cannot leave a trap we cannot name. Integrated frameworks like the Sustainable Development Goals are a start, but they tend to mix relative goals (be a little less unsustainable) with absolute ones (respect a planetary threshold), and they rarely sanction inaction. Naming the traps — and the mechanism that holds each one shut — is the 1st capacity.

    Draws on Sensemaking Process knowledge Learning process

  2. b Measure and foresee

    We need indicators that track well-being and biosphere health in real time, and we need foresight tools to anticipate technological and social traps before they fully close. The dashboards and databases of beyond-GDP economics, planetary boundaries, and Earth-system monitoring are the closest current approximation.

    Draws on Knowledge systems Structure → function Learning Learning process

  3. c Reorganise and innovate

    Some of the institutions and infrastructures that hold us inside traps were built for a smaller, slower world. Reconfiguring them — and inventing new social and nature-based solutions, not only material technologies — is what the paper calls the capacity to reorganise. This is also where it warns against over-confidence in geoengineering, which risks adding new technology traps to the ones we already have.

    Draws on Envisioning Selecting Cross-scale relationships Innovation & selection

  4. d Be prepared for surprise

    The Anthropocene will produce unknown unknowns. Modularity, redundancy, diversity, and no-regrets policies (actions that pay off even if the worst-case never arrives) are the methods the paper highlights. The capacity to act rigorously under deep uncertainty is, in itself, an evolvability trait.

    Draws on Disturbance living Disturbance evoking Stabilization Stability, robustness & plasticity

  5. e Navigate conflict

    Because division is a hub trap, any serious response must include the capacity to reconcile incompatible interests across scales — between countries, between generations, between sectors. Cultural evolution has historically been propelled by a shared enemy; the paper proposes that future cooperation may need to recentre on a shared friend — the Earth and its capacity to support life.

    Draws on Cross-scale dynamics Matching scales Momentum Cooperation

Five evolutionary processes underneath

Underneath the five evolvability capacities, the twenty-three working capacities, and any number that might be added later, sit just five deeper processes. They are the substrate every specific capacity ultimately runs on — and the unit at which gaps in the toolkit show up.

  • Innovation and selection

    Generating and selecting innovations.

    Diversity & disturbance Envisioning futures Selecting innovations Cross-scale relationships

  • Inheritance and transmission

    Transmitting knowledge and information across generations.

    Diversity & disturbance Ecological memory Social memory Social-ecological memory Adoption

  • Learning

    Acquiring and improving knowledge.

    Experiential knowledge Structure → function Process knowledge Knowledge systems Learning from crisis Sensemaking Learning

  • Cooperation

    Cooperating across multiple levels of social organization.

    Cross-scale dynamics Matching scales Gathering momentum

  • Stability, robustness and plasticity

    Maintaining stability and the capacity to reorganize.

    Evoking disturbance Expecting the unexpected Routinization Stabilization

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H The Sapiezoic horizon

What would it mean for humanity to leave the polycrisis rather than merely survive it?

One answer the paper gestures toward is the Sapiezoic — a proposed new aeon in Earth history (following the Proterozoic, the Phanerozoic, and our current Cenozoic) in which a species, for the 1st time, becomes consciously responsible for the planetary system that produced it. The Great Oxygenation Event reshaped Earth's atmosphere by accident. A Sapiezoic transition would reshape it on purpose, and in a direction that preserves the biota and the systems on which the species itself depends.

This is not a prediction. It is a horizon — a way of describing the kind of trajectory a serious response to the 14 traps would have to chart. The framework on this page is meant as a map of the obstacles between here and there.

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I The ordeals of Odysseus

αὐτῶν γὰρ σφετέρῃσιν ἀτασθαλίῃσιν ὄλοντο,
νήπιοι, οἳ κατὰ βοῦς Ὑπερίονος Ἠελίοιο
ἤσθιον· αὐτὰρ ὁ τοῖσιν ἀφείλετο νόστιμον ἦμαρ.
They perished by their own recklessness — fools, who ate the cattle of Helios Hyperion; and he took from them the day of their homecoming.
Odyssey 1.7–9, nine lines into the poem

Everyone knows this story. A man spends ten years trying to get home from a war, and loses every last one of his companions on the way — not to the war, to the journey.

What is less often noticed is how they die. Hardly any of them are killed by monsters. They are killed by decisions that made sense at the time: a good harbour, a fair share, a meal when you are starving. Homer spends twelve books watching a crew of tired, competent, unlucky men do the reasonable thing until there is nobody left.

Which makes him useful here. The fourteen traps above are systems science, and systems science is hard to feel — it is written in the language of feedbacks and lock-ins and scale mismatch, and it slides off. Homer does not slide off. So for the next few minutes the traps are going to be explained by sailors.

1

What a trap actually is

An obstacle stops you leaving. A trap stops you wanting to.

The Lotus-Eaters · Odyssey 9.82–104

Odysseus sends three men inland to find out who lives there. Nobody attacks them. There is no monster, no storm, no cave, no god. They are given the lotus to eat, and they eat it, and that is the entire event. What happens next is that they stop wanting to go home. Not that they cannot — that they would rather not, and would rather you stopped asking. Odysseus has to drag them back to the ships himself, tie them under the benches, and put to sea while they weep to be let off.

This is the cleanest definition of the word on the whole page, and it is 2,800 years old. A trap is not a thing that blocks you. It is a thing that revises what you want, until the exit stops looking like an exit. That is the difference between the Cyclops' cave — an obstacle, solved with a stake and some nerve — and the lotus, which cannot be solved at all, because the people inside it are content. Every trap in §D works this way. Nobody is holding the fossil-fuel economy at knifepoint. The reason it is hard to leave is not that we are prevented. It is that leaving costs something, and staying feels fine, and the wanting has quietly changed.

Homer's crew have to be tied up and taken home against their will. They weep the whole way. They are being rescued.

The trap this is Short-termism
2

Why good decisions cause disasters

Everyone was right. That was the problem.

The Laestrygonians · Odyssey 10.87–132

They find a harbour: cliffs on both sides, a narrow mouth, no swell inside, dead calm water. Eleven captains take their ships in and moor together. Every one of those decisions is correct — it is a good harbour, and that is what harbours are for, and they are experienced men who have been at sea for years. Odysseus alone ties up outside, on the rock, in the worse berth, for reasons he never explains. Then the giants come to the cliff edge and spear the men in the still water like fish. Eleven ships. Every man aboard. One afternoon.

Nobody made a mistake. That is the whole lesson, and it is the hardest one on this page to actually believe. The fleet was destroyed by eleven independently sound decisions that happened to be the same decision — and the sameness, not the decision, is what killed them. The paper has a term for what the fleet had run out of: response diversity. It is why a monoculture fails all at once, why banks holding identical assets fall together, why an efficient supply chain snaps. Efficiency and fragility are not opposites here. They are the same property, described before and after the shock.

Odysseus survives because he took the worse berth. Not the smarter one — the worse one. Redundancy always looks like waste right up until the afternoon it doesn't.

The trap this is Simplification
3

Why traps are structural, not moral

Eurylochus is starving, and his reasoning is sound.

The Cattle of the Sun · Odyssey 12.320–398

Warned by Teiresias. Warned again by Circe. Sworn by oath, every man. Then the south wind blows for a month and pins them on the beach; the stores run out; they fish and snare birds and starve. Odysseus walks inland to pray and falls asleep. And Eurylochus makes his case: every death is hateful, but starving is the worst of them, and better to go down at sea in one gulp than waste away here. They eat for six days. Zeus takes the ship and every man on it.

Read that argument cold, without knowing how it ends. It is a comparison of a certain, immediate, terrible cost against an uncertain and deferred one, made by a starving man on the thirtieth day of a headwind. It is a discount rate. It is not stupid and it is not wicked, and most people reading this page would make it. Homer calls them nēpioi — fools, children — and then spends three hundred lines showing you precisely why they had no other move. That tension is the framework's central claim: a trap is not a failure of character, it is a situation that makes the harmful choice the reasonable one. If the traps in §D were caused by stupidity or greed, they would be easy. They are hard because they are largely populated by people doing the sensible thing.

The hides crawl on the ground. The meat lows on the spits. The signal is not masked, not weak, not ambiguous — it is mooing — and they eat for six days, because they are starving. That is what a trap is.

The trap this is Overshoot
4

What a trapping mechanism is

You cannot un-sing the song.

The Wooden Horse · Odyssey 8.499–520

At a feast on Scheria, the blind singer Demodocus performs the fall of Troy: the horse, the men inside it, the city opened from within. He performs it because the guest asked for it. The guest is Odysseus, who built the horse, and who now covers his head with his cloak and weeps so that no one will see, and the song goes on regardless, because the song does not belong to him any more.

A trapping mechanism is what makes a trajectory hard to leave once it has been entered — and the one operating here is the paper's own word, permanence. It is not that the horse is powerful. It is that the horse cannot be uninvented. Demodocus already knows the song; so does every singer he taught it to; and the knowledge of how to end a war by that particular trick is now loose in the world, permanently, no matter how its author feels about it. This is exactly the paper's claim about nuclear weapons and about every technology after them: cumulative culture means that what has been invented is not going to go extinct. There is no recall.

The inventor of the decisive weapon, sitting in the audience with his cloak over his face, listening to a stranger sing his own device back to him. Twenty-eight centuries before Oppenheimer said the line about becoming death.

The trap this is Existential Technology
5

What masking looks like from inside

"They have never yet feared damage or loss."

The Ships That Steer Themselves · Odyssey 8.555–563

Alcinous explains his fleet, and he is proud of it. The ships have no steersmen and no steering oars. They understand the intentions of the men aboard. They know every city and every field. They cross open water wrapped in mist, and — his words — they have never yet feared damage or loss. He is not warning anyone. He is showing off the best thing his people have.

The masking phase is not ignorance and it is not denial. It is a period in which the thing is genuinely working, the benefits are real and visible, and the failure has simply not happened yet — so there is nothing to see, and anyone pointing at the risk is pointing at an absence. Note the tense Alcinous reaches for: never yet. He has noticed the risk well enough to have a phrase for not having met it. Autonomous, opaque, trusted, and load-bearing for the whole society. Table 1 puts the real Technological Autonomy trap at phase 2–3 — scaling and masking, trapping mechanism not yet activated. Alcinous is standing in exactly that phase, and so, on the paper's own assessment, are we.

Homer resolves it by having a god turn the ship to stone. That is the one move unavailable to us — which is why this ordeal scores only as an echo in the matrix below, and why the real version has no ending yet.

The trap this is Technological Autonomy
6

Why a warning is not a solution

Teiresias is right. It changes nothing.

The Underworld · Odyssey 11.100–137

Odysseus goes to the land of the dead specifically to be told what will happen. Teiresias tells him, without hedging and without ambiguity: leave the cattle of Helios alone. Harm them and I foretell destruction, for ship and men. Even if you escape yourself, you will come home late and badly, on a stranger's ship, having lost every companion. Every word of that comes true, in order, including the stranger's ship.

The warning is correct. It is specific. It is early. It is believed — Odysseus repeats it to the crew and makes them swear on it. And it does not work. This is the most uncomfortable scene on the page, because it is the one the page is: an assessment, delivered on time, by a credible source, to people who accept it. Knowing is not a capacity. Between Teiresias and the cattle stand a month of headwinds and an empty food store, and no amount of foreknowledge eats. The 2026 capacities assessment puts a hard number on this: of the fourteen traps, overshoot — the trap Teiresias names — is addressed directly by no resilience capacity at all.

If you take one thing from this section, take this. The scene where the prophecy is delivered perfectly, and the scene where they eat the cattle anyway, are three hundred lines apart. Homer put that distance there on purpose.

The trap this is Overshoot
0 3 6 9 12 ships Troy Cicones Polyphemus Laestrygonians Circe Scylla Thrinacia Ithaca 1 Odysseus reaches Ithaca
Twelve ships leave Troy. Odysseus reaches Ithaca alone. Watch where the line falls. The Cicones take seventy-two men and the Cyclops six, and the fleet does not lose a single hull — those are the monsters, and the monsters are survivable. The cliff is a calm afternoon in a sheltered harbour. The last step down is a meal. Hover any point for Homer's own count of the dead. Ships are plotted because ships are what Homer accounts for the whole way through. He counts men too, but only in places: seventy-two at Ismarus, six in the cave, six to Scylla — and, once a single ship is left, roughly forty-six aboard it at Aeaea, from two companies of twenty-two plus Odysseus (10.203–208; the exact figure is contested, 45–47). He never states the fleet's complement, so it is not drawn: the familiar six hundred is a modern reconstruction from the Iliad's catalogue and appears nowhere in this poem.

The one thing Homer cannot show you

There is no plague in the Odyssey. The other poem opens with one — nine days of arrows falling on the camp — but this one has no contagion in it anywhere, and the reason is worth more than any of the correspondences above.

Contagion needs a network. Odysseus' world has none. Nine days of drift puts you off every chart anyone has; each island is a sealed world with its own rules and its own monster; nothing moves between them except one ship that keeps getting smaller. You cannot have a plague without traffic.

So thirteen of the fourteen traps have something in Homer to hold onto, and one of them simply does not exist yet. That gap is the measure of what changed. We built the traffic — and the traffic is what made Contagion possible, and Simplification global, and Overconsumption invisible from where the consuming happens. Homer's crew could only ever lose their own ship. The interesting and frightening thing about our predicament is that there is now only one ship.

The word Homer uses twice

He spends it early, and hardly anyone notices the second time. Nine lines in, it is about the crew: they perished by their own atasthalíai. Twenty-five lines later the poem widens it to everybody, and puts it in the mouth of Zeus.

ὢ πόποι, οἷον δή νυ θεοὺς βροτοὶ αἰτιόωνται.
ἐξ ἡμέων γάρ φασι κάκ' ἔμμεναι· οἱ δὲ καὶ αὐτοὶ
σφῇσιν ἀτασθαλίῃσιν ὑπὲρ μόρον ἄλγε' ἔχουσιν.
Oh, how mortals blame the gods. From us, they say, come their evils — when it is they themselves, through their own recklessness, who suffer beyond their allotted portion.
Odyssey 1.32–34, the first thing Zeus says in the poem

ἀτασθαλίαιatasthalíai. It is usually rendered "recklessness" or "folly", and both are thin. The word means something narrower and worse: acting past what you know, in the direction you already know is wrong, because the near reward is legible and the far cost is not. It is not ignorance — Homer's crews are always warned, always explicitly, generally twice. It is not malice either; nobody in this poem eats the cattle out of spite. It is the particular human talent for being told exactly what will happen and doing it anyway.

Two things in Zeus's complaint are why it still lands. The first is ὑπὲρ μόρονbeyond one's portion: suffering in excess of anything fate, nature, or bad luck had allotted. That is, almost word for word, what a planetary boundary is — a measured statement of the portion, and of how far past it we are living. The second is the sting: mortals blame the gods. We do not have gods, so we blame the market, the previous generation, the other hemisphere, the physics, human nature — anything with the useful property of being no one in particular. Homer's charge is not that we are destructive. It is that we are destructive and then look everywhere but inward for the cause. Three thousand years on, the second charge has aged better than the first.

And this is why atasthalíai is not a counsel of despair, though it sounds like one. Recklessness is not a species trait and not a geological inevitability. It is a way of behaving — the one thing in this entire account that was never fated. Zeus's whole point is that the suffering was optional. A crew that does not open the bag of winds, does not slaughter the cattle, does not fall asleep in sight of the harbour, gets home.

A name for it, if you want one our suggestion — not the paper's

The ideas gathered on this page lead us to suggest yet another name for our peculiar epoch: the Atasthalocene.

Ἀτασθαλόκαινος; roughly a-TASS-tha-lo-seen. Built exactly the way Anthropocene is built: atasthalo- welded to -cene, from kainós, "new" or "recent" — the same suffix the Holocene, the Pleistocene and the Miocene already carry. The age of reckless folly.

What it does that the others do not is diagnose. Anthropocene is descriptive: the age of humans. It names the agent and stops, which is why it has been possible to say it for twenty-five years without it costing anyone anything. The polemical alternatives go further, but each narrows the charge to a defendant — Capitalocene indicts an economic order, Thanatocene tallies the dead, Plantationocene the estate and its ledger. Atasthalíai indicts neither a system nor a body count. It indicts conduct. That is not an economic category; it is a tragic one — and it is a precise description of what the fourteen traps above actually are.

It is also the only one of them with a door in it. Anthropocene names what we are, and no one can stop being what they are; the word offers no exit, which may be part of why it is so comfortable to say. Atasthalocene names what we are doing. An Atasthalocene can end without our ending, because the conduct can stop. That is the whole distance between this strait and the harbour beyond it.

All twenty ordeals, scored against all fourteen traps the working, if you want to check it

Stories will agree with anything you ask them to, so this is the part that had to be disciplined. Every ordeal was put to the same three questions the paper's authors use to admit a trap in the first place: did it begin as something that worked; does it damage well-being, now or in prospect; and is there a trapping mechanism that makes leaving harder once it fires? All three or it does not count — which is why the storm off Cape Malea, the event that starts the whole wandering, scores nothing at all. It is weather. Weather is not a trap.

The criteria in the authors' own words
We set three criteria for identifying a phenomenon as a potential Anthropocene trap: (1) that it can be described as evolving from an initially adaptive process; (2) that it, at the global level, shows signs of undesirable impacts on human well-being or has been hypothesized to show such signs in the future; (3) that it has a trapping mechanism that makes it harder to escape from negative impacts once this mechanism is activated.
Søgaard Jørgensen et al. 2023, Phil. Trans. R. Soc. B 379: 20220261, §3 (p. 4). Criterion 2's second clause — 'or has been hypothesized to show such signs in the future' — is part of the authors' test and is applied here as written.
Simplification Growth-for-Growth Overshoot Division Contagion Infrastructure Lock-in Chemical Pollution Existential Technology Technological Autonomy Disinformation Short-termism Overconsumption Biosphere Disconnect Local Social Capital Loss
I The Poison of Ephyra
II The Wooden Horse
III The Cicones
IV The Storm off Malea
V The Lotus-Eaters
VI Polyphemus
VII The Bag of Winds
VIII The Laestrygonians
IX Circe
X The Underworld
XI The Sirens
XII Scylla
XIII The Cattle of the Sun
XIV Ogygia
XV The Raft
XVI The Phaeacian Ships
XVII The Ship Turned to Stone
XVIII The Assembly
XIX The Suitors
XX The Kinsmen
The Contagion column is empty because Homer's world has no traffic. The Cape Malea row is empty because a storm is not a decision. Hover a cell for the reasoning; the scoring is ours, not the authors'.
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J Sources & citation

This page is a reference to the framework introduced in the 2023 paper below and extended in its 2026 follow-up:

Søgaard Jørgensen P, Jansen REV, Avila Ortega DI, Wang-Erlandsson L, Donges JF, Österblom H, Olsson P, Nyström M, Lade SJ, Hahn T, Folke C, Peterson GD, Crépin A-S. (2023). Evolution of the polycrisis: Anthropocene traps that challenge global sustainability. Philosophical Transactions of the Royal Society B, 379(1893): 20220261. DOI: 10.1098/rstb.2022.0261. Published under CC BY 4.0.

Søgaard Jørgensen P, Delannoy L, Maniatakou S, Folke C, Moore M-L, Olsson P. (2026). Both adaptive and transformative capacities are necessary to navigate global polycrisis. Global Sustainability, 9: e16. DOI: 10.1017/sus.2026.10053. Published under CC BY 4.0.

The figures on this page draw on both papers. The 4-phase spider, the 3-family loops, and the 14×14 interaction heatmap are adapted from Figures 1b, 2a, 2b and Supplementary Tables S1–S4 of the 2023 paper. The 14 × 23 trap–capacity matrix in section F is rendered directly from Supplementary Table 1 of the 2026 paper. The 14 trap entries draw their definitions, current phases, trends and trapping mechanisms from Supplementary Table S1 of the 2023 paper; additional indicators are sourced as cited per chart.

The poster artwork — The Anthropocene Strait — is original work by GLOBAÏA, designed as a visual companion to the framework. The interactive simulation at /anthropocene-traps/interactive/ is its real-time descendant.

The Homer quoted in section I is rendered literally, after the Loeb prose of A.T. Murray (1919, revised by George Dimock, 1995) and Richmond Lattimore's verse (1967), whose "recklessness" is kept for atasthalíai. Readers of Emily Wilson's translation will find the verdict softened — "poor fools" at line seven, "folly" in Zeus's speech — a deliberate reading, discussed in the companion essay, The Atasthalocene.

How to cite this page

GLOBAÏA (2026). The Anthropocene Traps. globaia.org/anthropocene-traps/. Accessed .

This page is published under Creative Commons CC BY 4.0.

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