I have been to three funerals in the last decade. Each time, the community knew exactly what to do. Someone cooked. Someone spoke. Someone cried in the right way at the right moment, and everyone understood. The grief had a shape. What I have not seen, in all my years working in conservation and ecology, is anything like that for a disappearing wetland, a bleached reef, or a river running dry for the first time in recorded history. We have the data. We have the reports. We have, occasionally, the outrage. What we do not have is the ritual. I am starting to think that absence of grief mechanisms for ecological loss is costing us more than we know.

“Solastalgia is the homesickness you have when you are still at home. It is the pain experienced when the place you live and love is transformed beyond recognition.”

— Glenn Albrecht, “Solastalgia: A New Concept in Health and Identity” (2005)

Fairly early in my time living in Botswana in the 1990s, I visited the Mababe Depression, a remote yet significant ecological and geological feature between the Okavango Delta and Chobe National Park. Mababe catches enough water for seasonal wetlands and surrounding grasslands that support large wildlife populations, including some of Botswana’s largest buffalo herds and significant numbers of elephants, lions, and other iconic species. The area is also a critical habitat for numerous bird species, making it a valuable site for conservation and ecotourism.

Alright, so it’s a wonderful African wilderness area that still looks much like it has for millennia. I was lucky to go there. I was visiting a wild dog research project, and we spent an evening following a pack, radio collar on the lead female, and counted over 20 mammal species, including an aardvark that darted between two termite mounds.

All that was pretty special Africa, but what happened the next morning as I took a gentle stroll a few meters away from my tent and onto the terrace of the Savuti channel was truly special.

No lions, elephants, or cheetahs, just a gentle serenade from the morning doves and a ground hornbill in the distance, the sun warming my face and a profound sense of peace. Stillness of mind, like nothing I had ever known before. I was home, true home, at one with whoever, whatever made me. In that place where I could not survive for a day was the peace that, the religious say, is bestowed by the Almighty. I was touched and, for a moment, serene.

No thoughts, no doubts, no pain, pure presence.

I blinked and it was gone.

I had connected, however briefly, with where I came from, where my ancestral DNA resided all those generations ago. It might be true, and if not, it is a comforting story.

Turns out, you can feel homesick without leaving home.

Coined by Australian environmental philosopher Glenn Albrecht in the early 2000s, solastalgia merges the Latin solacium (comfort) and the Greek root -algia (pain), capturing the paradox of feeling homesick while still at home.

Solastalgia is what happens when the place that made you feel grounded starts changing or breaking while you’re still living in it, and the loss lands as powerlessness and dislocation rather than a wistful longing for elsewhere. It puts a name to an increasingly common psychological response in communities watching drought, deforestation, rising seas, or extractive industries remake their home in real time, with farmers in New South Wales enduring prolonged drought and open-cut mining featuring in Albrecht’s early work. The point isn’t semantic; it shifts environmental damage from an abstract ecological or economic problem into a lived emotional and existential one, and that matters because naming it creates space to recognise mental health impacts that might otherwise be filed away as depression or anxiety while the environmental root cause goes unspoken.

The term has gained traction globally and is now used in climate psychology, environmental justice, and eco-arts to articulate the lived experience of environmental loss. It resonates particularly with Indigenous communities, coastal dwellers, and rural populations confronting environmental transformation.

And it begins with the idea that everyone, however disconnected they may be, are suffering from loss.

Ecological degradation triggers genuine grief responses that often go unrecognised

Loss of a loved one, a friend, or even a well-known public figure is tangible. The person was real, physically present in our lives, and coming to terms with their absence is difficult. Family pets that die were physical, too, loved and lost. Even the word, we can’t find them anymore.

Environmental grief is a feeling of helplessness and vulnerability in the face of planetary-scale disruption. The loss here is often abstract or slow-moving, often with no obvious visible signs in everyday life. This mismatch can lead to the internalisation or dismissal of such feelings, even by those experiencing them, thus compounding the emotional burden.

On some mornings, it lands quietly. You open the news and there it is again, another reef bleaching event, another fire season starting early, another species you have never seen in the wild being filed away as gone. Nothing in your own house has changed, but the background world feels thinner, depleted somehow, and you feel it.

That response has a name. Solastalgia is grief triggered by environmental damage and a collapsing sense of home. It is not melodrama and it is not a political mood. It sits in the same family as bereavement because it follows the same logic, attachment, rupture, and the slow recalibration of what you thought would endure.

Conventional grief for a person is legible and people know what to say. There are rituals, leave policies, casseroles, condolences, an accepted storyline for how sorrow is meant to move through those who knew who passed and even a community. Ecological grief often arrives without any of that scaffolding. It can be difficult to name, harder to share, and easy for institutions to treat as either private anxiety or public ideology.

So people carry it alone because the culture has not built a recognised place to put it.

Psychologists have linked ecological grief to individual wellbeing and to motivations for pro-environmental behaviour. Theoretical frameworks situate it inside broader models of grief and loss, rather than treating it as a novel anomaly. Systematic research is still evolving, but multiple lines of evidence are pointing to the same conclusion. Ecological grief is real, and it is showing up more often as environmental change accelerates.

And yet, for the most part, modern society ignores environmental grief. Perhaps to avoid guilt, we don’t have formal ways to process it.

Modern societies lack cultural frameworks for processing environmental grief

When a human dies, a socially sanctioned practice begins. The death is recorded, the body taken away, and carefully prepared for appropriate rituals. A funeral takes place, and the body is laid to rest. There are memorial services, maybe a plaque or a headstone are crafted, and a mourning period is observed. It’s a process of acknowledgement that takes time and engagement and appears in various forms in all cultures.

In contrast, grief over environmental loss is typically silent and unsupported, partly because such losses are collective, diffuse, and ongoing, rather than discrete events. The absence of cultural acknowledgement makes it harder for people to validate their emotional responses and may result in internalised shame, numbness, or psychological distress.

Several factors contribute to this cultural void.

To begin with, it is new. When agriculture began some 12,000 years ago, the best estimate was that around 10 million people were spread thinly across the planet. These foragers had a light touch, perhaps exterminating a few species of megafauna, but they did little to the broad brush of the landscape. Fire and selective planting altered the vegetation, but they had little reason to grieve for their home. Indeed, they were most likely agreeing with its rhythms.

There are 2,050 Barcelona’s worth of people today, vs 10 million at the start of agriculture. More than enough to alter every corner beyond recognition. We have plenty of visible and reported environmental change to grieve.

Then, there is the psychology.

Values in modern capitalist societies tend to downplay or deny emotional connections to the natural world. The anthropocentric framing of nature is as a resource to be used rather than a relational entity to be mourned. We used to forage in it now we can plough, mine and pave it for our needs and wants. Emotional responses to ecological harm are typically dismissed as irrational, sentimental, or unproductive.

When a society has no rituals for ecological loss or has lost them, the cost shows up in emotional stagnation and a disconnection from nature. A kind of numb drift. Without ritual, ecological grief becomes a private, invisible burden. There is no public space to mourn a dying river or a lost habitat, so people learn to read their own sadness as irrational or excessive. They stop talking about it. That silence produces stagnation, and stagnation produces numbing. The psyche protects itself by dialling down feeling across the board, and the cost is not just the muting of grief. It is the erosion of awe, connection, and the capacity for sustained attention to the living world.

Authors and practitioners like Joanna Macy, Martín Prechtel, and Francis Weller make the claim, albeit from different angles, that grief over the environment is both personal and a communal responsibility. The rise of climate vigils, Earth-based rituals, and ecopsychology is trying to fill this gap and create a space where collective mourning can happen without apology. Still, these frameworks remain peripheral. They have not yet been widely integrated into public life, education, or mental health systems.

Rituals interrupt that drift by doing three specific things. They validate the loss, signalling that what the mourner feels is real and proportionate. They externalise it, moving grief from the interior of the mind into a physical act shared with others. And they restore the feedback loop between people and place, reminding participants that they are part of the ecosystem rather than spectators of it. In many Indigenous cultures, rituals for the land kept that awareness sharp and continuous. When the rituals disappear, the land is quietly reclassified from a relative to a resource. Once that shift is complete, its destruction registers as a line item rather than a loss.

Indigenous worldviews often understand humans as embedded within, rather than separate from, the natural world. This perspective shapes how ecological loss is experienced and expressed. When species disappear, landscapes change, or sacred sites are desecrated, these losses are not seen as external environmental events but as familial or spiritual traumas. Grief, in this context, is often collective, ceremonial, and continuous, reflecting deep relational ties to land, water, and more-than-human kin. Ceremonies of mourning, offerings, songs, storytelling, and seasonal rites are examples of how many Indigenous communities acknowledge ecological change and maintain emotional continuity with the land.

For example, many First Nations peoples in Australia mourn the destruction of Country not only as environmental damage but as a rupture in ancestral relationships. The concept of Caring for Country includes spiritual, legal, and emotional obligations to maintain the health of land and water. When Country is harmed through mining, logging, or fire mismanagement, for example, the grief that follows is real and culturally supported. Similarly, in the Arctic, Inuit communities experiencing melting permafrost and declining ice have described deep sorrow and identity loss, which researchers like Ashlee Cunsolo have documented as ecological grief. Among these communities, such grief is not pathologised but interwoven with resilience, storytelling, and intergenerational knowledge.

Modern societies, especially those shaped by settler-colonial, industrial, and secular paradigms, often cut the emotional and spiritual cord to the land. That rupture does three things at once. It isolates people from the ecosystems they live inside. It removes the cultural tools that would help them metabolise the trauma of environmental collapse. And it also reduces their guilt from actions that drastically affect the way nature works.

The most functional aspect of the rupture, for an industrial society, is the ethical distance it creates. When people are emotionally and spiritually connected to a forest, destroying it feels like self-harm. Sever that connection, and the same act becomes an economic necessity or a statistical externality. The numbing is not incidental because industrial systems depend on it to keep operating without the friction of collective shame.

The bitter irony is that the tools used to master nature, secularism, industrialism, rational resource accounting, are precisely what stripped away the emotional equipment needed to reckon with the consequences of that mastery. The capacity to exploit and the capacity to grieve were dismantled together. And in the absence of ritual, community acknowledgement, or linguistic framing for environmental loss, a privatised, often pathologised grief experience happens. Perhaps this explains why we want to save the whale, the koala or local iconic species. It makes us feel better; briefly.

Suppressed ecological grief manifests as anxiety, depression, and political polarisation

A growing body of research in psychology and environmental humanities suggests that unacknowledged ecological grief manifests as anxiety, depression, and chronic feelings of helplessness. Francis Weller describes this as unmetabolised sorrow, a weight that accumulates in individuals and communities when loss goes unprocessed.

Grief is not resolved, which brings serious consequences. Climate-aware therapists report that patients frequently present with vague, persistent anxiety and depression tied to an unspoken awareness of environmental loss and planetary instability. Those conditions are compounded by the absence of public language or ritual to validate such feelings, leaving sufferers uncertain about the origin of their own distress. There is no cultural container for what they are carrying.

An emotion not seen or acknowledged by the surrounding culture is rerouted into outlets that are easier to name, justify, or perform. Some people slide into denialism, apathy, or hyper-consumerism as forms of emotional displacement. Others carry the same unresolved grief into polarised identity politics, eco-anxiety-fuelled outrage, or rigid ideological posturing. The grief finds itself a shape, only it is rarely a useful one. Knowing this, climate polarisation can be read, at least in part, as collective emotional dysregulation. A clash between those who suppress grief through denial and those who express it through alarm and advocacy, often without mutual recognition.

Unresolved grief is also fertile ground for populist stories that feed on existential fear. When people feel loss but have no shared way to name it, the energy looks for a channel. Some authoritarian or nationalist movements have learned to offer one. They co-opt ecological language, for example, “protecting our land” and convert grief into exclusionary or regressive agendas.

Meanwhile, the ecological left has its own failure mode. When grief is not communally held or metabolised into constructive engagement, it can curdle into burnout or despair.

Without cultural and psychological mechanisms to name, share, and process ecological grief, societies may experience increased fragmentation, mistrust, and emotional volatility that erodes the social cohesion needed to face ecological crises together. Rituals are not cultural relics or optional comfort. They are social infrastructure, and without them, the cohesion needed to navigate the Anthropocene dissolves into the numb drift and fragmentation that makes collective action nearly impossible.

So what do other cultures do about this? Recall that only around a billion or so of the 8 billion people on the planet hail from liberal democracies that know little more than exploitation of natural resources.

Presumably, there are other ways to process collective loss.

Different cultural traditions offer diverse models for processing collective loss

Human societies know about shared experiences of grief and loss from war, natural disaster, famine, or death. Their coping mechanisms often include ritualised mourning, collective storytelling, music, dance, prayer, seasonal ceremonies, and public memorials. Such practices serve not only to acknowledge pain and loss but also to reaffirm cultural identity, reknit social cohesion, and symbolically connect the past to the future. For instance, Japan’s Bon Festival honours ancestral spirits and affirms familial continuity; in many African cultures, grief is processed through extended mourning periods, drumming, singing, and public expression; and in Jewish tradition, shiva provides structured time for collective grieving, reflection, and emotional support.

My own cultural salve is Johnny Clegg’s 1993 song The Crossing (O Siyeza), a tribute to his bandmate Dudu Ndlovu, murdered during the unrest preceding the end of Apartheid. I heard Clegg play it live soon after its release. The song weaves personal grief with Zulu spiritualism, using the metaphor of crossing over to trace the soul’s journey from the living to the ancestors. It became something larger than a eulogy. For a country navigating out of racial segregation toward a democratic future, it captured the exhaustion and the hope in a single breath. The journey over the dark mountains is arduous. There is rest on the other side.

In many Indigenous cultures, land is part of the community. So rituals of loss extend outward to trees, rivers, species, and ancestral landscapes. In Māori tradition, whenua (land) is bound up with identity and ancestry. Damage to land is felt as a rupture in lineage and belonging, which is why communal rituals can arise to restore spiritual and social balance.

Set against that, many modern societies tend to privatise grief and put it on a clock. These cultural traditions do almost the opposite. They build ongoing, cyclical structures for revisiting loss and returning to healing, not once, but across generations. Coping mechanisms are also adaptive. They have survived disruption before and learned to hold loss without collapsing into it.

Grieving together turns out to be more than consolation. At scale, it becomes resistance, cultural renewal, and psychological repair. That is precisely its value when the loss is too large for any one person to carry alone.

Tangihanga, the traditional Māori process of mourning, unfolds over several days on a marae and draws together waiata, karakia, communal meals, and ancestral speech into a single act of re-stitching. It is not only a farewell to the deceased. It reaffirms tribal identity and the living relationship between people and whenua because in Māori cosmology land and nature are kin, not backdrop. That framing changes what environmental damage means. Degradation is harm to whakapapa, grieved communally, and when sacred sites or rivers are damaged, rituals of mourning and healing are invoked to restore balance. As a model for acknowledging ecological loss with ritual depth and communal weight, it has few equivalents.

Rooted in Indigenous Aztec traditions and blended with Catholic ritual, Día de los Muertos honours deceased ancestors through altars, ofrendas, laden with food, photographs, candles, and marigolds, alongside cemetery vigils held in a spirit of celebration rather than sorrow. The tradition affirms a cyclical view of life and death, keeping the relationship with the dead active and participatory. Grief becomes something you do together, out loud, and in public. As communities across Mexico face deforestation, water scarcity, and climate disruption, some environmental groups have begun folding that symbolism into ecological memorials with altars for extinct species and processions to mourn vanishing landscapes.

The Dogon people of Mali hold Dama ceremonies to mark the passage of the dead and release their spirits into the ancestral realm. Multi-day events built around masked dances, drumming, storytelling, and communal gathering, that in Dogon cosmology ties human life tightly to the rhythms of nature, agriculture, and celestial observation. The Dama works to restore that spiritual-ecological order when death has disturbed it. Individual loss and cosmic rebalancing are the same ceremony.

It might be obvious by now that the collective grief of ecological loss is not new or trendy or something imagined by a lefty academic on a New England campus. This is the stuff of human evolution, a knowing that loss is more than the passing of a loved one or the family pet and is felt by everyone.

It is time to acknowledge and honour it.

Acknowledging grief is essential for sustained environmental action rather than an obstacle to it

When grief is recognised and worked through, it stops being dead weight. Joanna Macy makes this point in the work that reconnects. Grieving the loss of ecosystems or species hurts, but the pain is evidence of connection. It tells the truth about what we belong to. And it can support a kind of activism that is grounded and sustainable, powered by love and loyalty to what is threatened rather than by fear or outrage alone.

Suppressing grief tends to do the opposite. It does not remove the feeling. It forces it to find another exit, and that often looks like numbing, denial, or burnout, particularly for people doing climate or conservation work up close. Many activists describe this pattern as futility, despair, and chronic fatigue. Not simply because the work is hard, but because either their grief is invalidated or because their effort starts to feel emotionally unmoored from what it is actually about. Without space to mourn what has been lost or damaged, people either step away entirely or get swallowed by hopelessness.

Psychologically, grief functions as a necessary pause. A way of honouring what matters. A bridge from loss to adaptive response. It is not indulgent or distracting. It is how individuals and communities integrate the reality of change, so they can keep acting with intention.

Socially and politically, normalising grief is a resilience move.

When people grieve together through ritual, storytelling, or public acknowledgment, they build solidarity, mutual support, and a shared sense of purpose. You can see that in the rise of climate vigils, extinction memorials, and eco-rituals. They take private sorrow and turn it into public witness. They make urgency more real because it is rooted in emotional truth.

In that sense, acknowledging grief is not a side project. It is the beginning, the maintenance, and the moral renewal of activism. The key is not to pathologise grief, but to recognise it as a necessary emotional foundation for sustained, compassionate, and creative environmental action.

Only this is not how we do it, at least not in Western democracies. Environmental crises are routinely framed as technical problems requiring scientific and technological fixes. Renewable energy, carbon pricing, and conservation strategies are essential, but that framing sidelines the emotional responses that determine whether people act, support policy, or disengage entirely.

Anxiety, grief, guilt, and apathy are not noise. They are signals that something morally and existentially significant is at stake. Public discourse rewards data and objectivity while leaving the inner human experience unaddressed, and that mismatch strands people between warnings that are scientifically accurate and emotionally inaccessible.

When emotions are named and held in community, through storytelling, ritual, artistic expression, or honest dialogue, they stop obstructing and start fuelling care and collective action. Movements that make room for emotional expression tend to generate deeper public resonance than campaigns that stay purely technical. Extinction Rebellion’s use of grief rituals and the climate justice framing of youth movements both demonstrate the point. Emotional literacy is not a soft addition to strategic work. It shapes how leadership holds under pressure, how communication lands, and how mobilisation survives the long haul.

When we make cultural room for ecological grief, we increase, not decrease, our capacity for environmental action. That runs against the old reflex that emotion pulls us away from rational solutions, when, in practice, it is the reverse. Grief is properly acknowledged deepens commitment, reduces burnout, and builds the psychological resilience required for long-term engagement with complex environmental challenges.

You can see examples of this everywhere. Indigenous communities with established ways of expressing environmental relationship often show notable resilience as conditions shift. Activists who include grief rituals in their work often sidestep the cynicism that catches many colleagues. Conservation organisations that openly name the emotional reality of biodiversity loss often sustain staff engagement and creativity longer than those that rely only on technical problem-solving.

I cannot promise a serene moment on the banks of an African river, the musty warmth of elephant dung in the air and a mourning dove pulling its long note across the channel telling you, without words, that you belong to something older than your own name. I had that once. I did not know what to do with it then, and the culture I returned to had no ceremony for what I had felt or for what was already being lost.

We have built extraordinary tools for measuring the damage. We have built almost nothing for carrying it.

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Notes & Sources (for the curious)

Naming the feeling of solastalgia & ecological grief

• Solastalgia (definition + origin) — Albrecht (2005)

• Ecological grief as legitimate response to climate-related loss — Cunsolo & Ellis (2018)

• Eco-distress/eco-anxiety as a mental-health pathway of climate change — American Psychological Association + ecoAmerica, Mental Health and Our Changing Climate (2017; updated 2021)

The backdrop: biodiversity decline & environmental loss

• Global biodiversity decline (headline synthesis + drivers) — IPBES Global Assessment Summary for Policymakers (2019)

• Biodiversity as systemic risk (economy/finance framing, recent synthesis) — IPBES-linked reporting on systemic risk assessment (2026)

Culture as “container”: collective mourning frameworks

• Tangihanga as a communal Māori mourning practice (duration, purpose, open grieving) — Te Ara Encyclopaedia of New Zealand (2013)

• Día de los Muertos (public remembrance ritual, timing, meaning) — UNESCO Intangible Cultural Heritage entry (2008)

Indigenous place-relations & “Country”

• “Caring for Country” (definition + obligations; why Country is relational) — Australia State of the Environment 2021

• Caring for Country (overview + social/health benefits framing used in policy contexts) — AIATSIS resource on Caring for Country benefits (2017)

Practice-level “so what” for holding grief without collapsing into it

• Guidance for communities/clinicians on climate-linked distress and coping — APA + ecoAmerica (2021 update)

Primary Sources

Albrecht, G. (2005). Solastalgia: A new concept in health and identity. PAN: Philosophy Activism Nature, (3), 41–55.

Cunsolo, A., & Ellis, N. R. (2018). Ecological grief as a mental health response to climate change-related loss. Nature Climate Change, 8(4), 275–281.

Lawrance, E. L., Thompson, R., Newberry Le Vay, J., Page, L., & Jennings, N. (2022). The impact of climate change on mental health and emotional wellbeing: A narrative review of current evidence, and its implications. International Review of Psychiatry, 34(5), 443–498.

Pihkala, P. (2022). The process of eco-anxiety and ecological grief: A narrative review and a new proposal. Sustainability, 14(24), 16628.

Varutti, M. (2023). Claiming ecological grief: Why are we not mourning (more and more publicly) for ecological destruction? Ambio, 53(5), 552–564.

A Systems Spine turns Insight Vault fragments into a coherent sequence. Each one starts with posture, passes through constraints and incentives, and ends with practical implications. The aim is legibility under pressure. Track ecology, energy, mass-balance, and incentives and the world stops looking so mysterious.

The story most people carry is that we got richer because we got smarter, and we will stay rich because we will stay smart.

This Sequence Spine from the Mindful Sceptic Insight Vault argues for something harsher and more useful. What about if the last 200 years of so-called progress were actually the result of a temporary subsidy that let biology run hot?

Once you see that, you start to expect correction mechanisms already in play to return to something after the subsidy.

First we have to agree the anomaly.

Industrial-era prosperity largely reflects a one-off fossil energy subsidy that temporarily expanded the Earths carrying capacity for a single species, humans. This was a unique event in evolutionary history but will pass, and ecological limits will reassert themselves when that subsidy stops scaling.

Energy is the enabling condition in the growth story. Fossil fuels converted time, space, and effort into cheap throughput, then hid the bill in depletion and externalities.

However, orthodoxy says progress is normal and can be extended indefinitely because we will figure out a way. But a subsidy always ends, even if it ends slowly.

Status competition and reward-seeking in humans converts better into higher material throughput, so overshoot becomes the default outcome unless hard structural limits exist; a positive feedback loop.

Modern life trains the nervous system to read consumption as competence, safety, and belonging. Scale that logic across millions and then billions, and choice becomes a throughput engine with its own momentum. Efficiency gains do not cancel this because the social signal is relative and resets quickly. You do not need moral failure for this to hold, you just need incentives.

This sets up the idea that technology becomes the preferred tool for sustaining throughput without confronting the incentive engine.

Innovation can raise apparent carrying capacity, but it also preserves binding ecological limits because it increases system dependence on energy and materials.

Technology tends to shift constraints rather than remove them. It often converts one bottleneck into several upstream dependencies, then locks society into new infrastructure and expectations. The orthodoxy says innovation can permanently decouple impact from welfare, but the system still runs on physical throughput and maintenance. Buying time can be valuable, but it is not the same thing as escape.

And then delay is easily misread as proof that sustainability is achievable at civilisational scale. But it isn’t.

Human evolutionary incentives for growth block steady-state sustainability at the scale of civilisation.

Sustainability is usually sold as a design problem with an engineering solution. The more profound problem is behavioural and systemic. When conditions allow expansion, expansion happens, and the winners are selected for it. Education can refine behaviour at the margin, but it does not rewrite the underlying drive or the institutional incentives for growth.

But once sustainability is reframed as myth, simplification becomes real. We can imagine the involuntary shedding of layers of social, economic, and technological infrastructure, which is what happens when a society can no longer afford the energy or resource cost of its own complexity.

Exogenous energy has already driven simplification by selecting for centralised, uniform, efficiency-led structures that reduce redundancy and diversity.

Simplification is not just collapse later, it is brittleness now. Centralisation and optimisation remove slack and standardised supply chains promote efficiency. That looks like progress until variability arrives, at which point tight coupling turns small shocks into cascading failures. The orthodoxy waits for a dramatic break, but the quieter story is ongoing fragility creation.

A brittle, tightly coupled system does not glide into decline, it wobbles and lurches.

Because population and consumption track energy flows, incentives, and narratives, efforts to engineer a gentle descent tend to produce turbulence rather than stable soft landings.

Policy assumes controllability, but complex systems do not respond like machines. When constraints bite, responses are uneven, political, and delayed, and the feedbacks arrive late and hard. Attempts to smooth decline often increase leverage and exposure by betting on coordination that fails when stressed. We can plan, of course, but it should start from volatility as the baseline.

Instead, we are locked into looking at a glass half full or half empty.

In a constraint-bound crisis, the worst move is to pick a tribe. Certainty that tech-will-sort-it makes you complacent, and doom makes you inert. If you stay sceptical and keep moving, you can diversify your bets and adapt. That is how you keep the downside contained.

The lemming problem is social, not intellectual. Crowds pile into narratives that promise salvation or justify surrender, and both encourage concentration risk. A middle-path stance stays practical. It builds optionality, redundancy, and local competence while refusing the need to be right about the grand storyline. It trades glamour for survival.

The point is not to win the argument, it is to keep your footing as the system changes.

Conclusion

Read this Systems Spine and overshoot stops being a moral drama.

What happened is that human acceleration into booming population and resource use came from a subsidy, not a new permanent rule. Consumption took that subsidy and turned it into a cultural baseline. Technology bought more runway, which let the sustainability story live longer than it earned.

Meanwhile, the system kept simplifying as redundancy was quietly stripped out. That is why turbulence is already the normal condition, not a future surprise.

The move is straightforward. Drop the question of which single lever fixes the whole system, and drop the concept of sustainability. Ask instead which commitments create irreversible downside when volatility rises.

Build life choices that can take a hit without forcing a stampede or paralysis.

The future will reward flexibility.

Greetings loyal readers,

A small change to how this newsletter arrives.

Fortnightly, you’ll receive an original Uncomfortable Truth essay, a Hard Numbers analysis, or a Systems Spine, all drawing on the Insight Vault.

On alternate weeks starting today, a pointer to a single Insight Vault entry. These are standalone arguments drawn from the canon of sceptical thinking this publication has been building. Only this time, brief, pointed, and designed to be read in under five minutes.

Thank you for sticking with us.

Mark & Chris

For 290,000 years, Homo sapiens were large mammals living by the same rules as every other animal. Populations regulated by resource availability, energy finite, outcomes determined by ecological constraints.

Then, in a geological blink, we found concentrated ancient sunlight buried underground and built a civilisation by burning it.

The Insight Vault entry below takes that subsidy apart — what it actually explains about the past two centuries, and what its depletion implies for the next two.

Somewhere in the Pilbara, Australia, natural gas is being pulled from the ground and piped to a processing plant. Most people assume it will end up as fuel. A large fraction becomes ammonia, then urea, then a white granule in a 25-kilogram bag that a farmer in Punjab will split open and spread across a wheat field next spring. Without that bag, the yield roughly halves. Without that gas, there is no bag. Modern agriculture is running a tab with the petrochemical industry, with repayments that fall due every planting season.

It’s 10,000 BCE, the end of the last Ice Age, and the beginning of the Neolithic era somewhere in Northern Europe. It’s still chilly, but the summers are nice.

Homo sapiens had been around for 290,000 years or so by this time, but the population was sparse and widely dispersed. Estimates range from 1 million to 10 million people worldwide, though most scholars agree on a midpoint of around 4 million.

Yep, you read it right, four million. The population of modern Rome.

These early humans lived in small, semi-nomadic groups, relying on hunting, gathering, and fishing for sustenance. Their impact on the environment was minimal, and population growth was constrained by high infant mortality, food scarcity, and the absence of organised food production and storage systems. The lean times in an ice age are brutal.

Fast-forward to 2025, and there are over 8 billion humans on Earth. Humans figured out late in our evolution that growing food energy was easier than foraging for it. Better still, if that food could be stored over winter or through a drought, then you could stay put in one place rather than constantly move to where there was food to forage. Imagine what this meant. Instead of wandering endlessly over mountains and valleys, you had your patch. You had land that was worth a lot to you, worth protecting because on it, you could grow or rear all the food you needed. It is easy to forget what a revolution this was.

Historians will tell us that it gave us governance, hierarchies, religion, and cultural nuances, and anthropologists will tell us about how clever we were, but it began with having a pantry.

The origins of agriculture date back to the Neolithic era, approximately 10,000 BCE, in regions such as the Fertile Crescent, China, Mesoamerica, and the Indus Valley, where humans began domesticating wild plants and animals. Key domesticated crops included wheat, barley, rice, and maize, while animals like sheep, goats, cattle, and pigs became a larder on the hoof and integral to subsistence and society. Agricultural practices were largely manual, relying on basic tools and natural rainfall, and were profoundly shaped by local ecological conditions. They also failed a lot. There was plenty of trial and error before production systems settled into recognisable patterns.

What humans figured out, mostly without realising it, was that agriculture worked best as a near-closed production system. Animals ate the plant stems, leaves and leftovers that humans couldn’t, and their manure returned to the fields. What humans ate went the same way because only a fraction of the production went offsite to pay the tithes and taxes demanded by the new governance systems.

Over time, agriculture diversified and advanced through innovations such as irrigation, crop rotation, and ploughing, particularly during the classical and medieval periods. The Islamic Golden Age and medieval Europe both contributed to the development of agricultural knowledge and infrastructure as did the improved temperatures in Europe.

There were exchanges too. In the aftermath of Christopher Columbus’s 1492 voyage, European powers explored and colonised the Americas where they encountered a rich diversity of crops domesticated over thousands of years by Indigenous peoples—maize in Mesoamerica, potatoes in the Andes, and tomatoes in Central and South America. European sailors, traders, and botanists began transporting seeds and tubers back to Europe, often as curiosities or botanical specimens. Initially unfamiliar and sometimes mistrusted, these plants gradually found their place in European fields and kitchens, aided by their adaptability, nutritional value, and economic utility.

Among the most transformative transfers were three staple crops: potatoes, maize, and tomatoes. These crops were not merely additions to existing food systems; they often displaced traditional staples and enabled new modes of subsistence. The potato, in particular, spread rapidly through Europe by the 18th century due to its high yield per hectare and its resilience in poor soils and cool climates. It became a foundation for population growth, especially in Northern Europe. Some scholars credit the potato with fuelling the demographic expansion that underpinned industrialisation in Britain and continental Europe. More on this chicken and egg shortly.

Maize proved equally revolutionary. Its adaptability to different climates allowed it to spread across Africa, Asia, and Southern Europe, where it often became a major food source for both humans and livestock. In sub-Saharan Africa, maize gradually overtook traditional grains like millet and sorghum due to its higher productivity and compatibility with shifting cultivation. While this brought food security in many regions, it also led to monoculture and nutritional dependency, exposing communities to the risks of crop failure.

Meanwhile, tomatoes, initially viewed with suspicion in Europe due to their resemblance to nightshades, became a defining feature of Mediterranean cuisine by the 19th century, contributing to new culinary traditions as much as to agricultural diversity.

These regular improvements and innovations that increased yield and made the food system more sophisticated, food production produced some population growth.

By the 18th century, often called the Age of Enlightenment, when Isaac Newton (1642–1727) was writing his Principia Mathematica that laid the foundation for classical mechanics, influencing generations of scientists and natural philosophers, the global population had climbed to round 600 million, with the majority living in Asia, followed by Europe, Africa, and the Americas. Agriculture was a net energy source that meant human populations could increase by two orders of magnitude.

Then everything changed.

The Agricultural Revolution in Europe in the 19th century introduced mechanisation, selective breeding, and improved crop management, setting the stage for more intensive, productive systems. The 20th century marked a dramatic leap with the Green Revolution, which began in the 1940s and intensified in the 1960s. Spearheaded by scientists like Norman Borlaug, the Green Revolution introduced high-yield crop varieties, chemical fertilisers, pesticides, and advanced irrigation techniques. Initially focused on Mexico, India, and the Philippines, this movement significantly increased food production and averted famines in many developing countries.

In an evolutionary heartbeat, we entered the phase of intensive agriculture.

Farmers’ adopted technologies, and unlike traditional subsistence farming, which is labour-intensive and low-yield, intensive agriculture prioritises commercial output and economic efficiency. Intensification was only possible through addition of external energy to build and power machines that do most of the heavy lifting and to create inputs to replace nutrients that were leaving the fields in the higher yielding crops. Agriculture became, and remains, an energy sink, but it generated much more food than traditional systems.

Rather than see this as an energy story, it became a triumph of modernisation in farming system expressed as crop yield. A classic example of yield improvement comes from wheat production in India during the Green Revolution. In the early 1960s, wheat yields averaged around 0.8 tonnes per hectare. With the introduction of semi-dwarf, high-yielding varieties, along with improved irrigation and fertilisation, yields more than tripled to over 2.5 tonnes per hectare by the late 1970s. This transformation enabled India to transition from chronic grain shortages to self-sufficiency within a single generation.

Think about this for a moment.

Intensification increased wheat yields from less than 1 tonne/ha to a global average of 4 tonnes/ha, and peak performers approached double figures almost overnight. Suddenly, there was a lot more food.

Four million to 600 million humans is quite a jump. The annualised growth rate required to increase the human population over 12,000 years to Newton’s time is approximately 0.095% per year, reflecting slow but persistent long-term growth until the modern era.

Calculate the human population growth rate from 1961 to 2025, my lifetime, and the rate jumps to an average annual rate of approximately 1.51%, a significant increase compared to the much slower rates of earlier millennia. If the population growth rate hadn’t jumped in the 1940s and the global population had grown at the historical 0.095% per year from 1940 to 2025, it would have reached only about 2.5 billion by 2025.

Phenomenal agricultural productivity has enabled a massive increase in the human population. Reaching this point has required pushing ecological limits by injecting vast amounts of external energy, and now we are confronted by the consequences of that ecological overshoot.

But before we get too far ahead, let’s begin with this.

As we have seen, the Green Revolution, beginning in the mid-20th century, represents perhaps the most dramatic agricultural transformation in human history. Global cereal yields increased by 175% since 1961, with wheat output in India alone surging from 12 million tons in 1965 to 20 million tons in 1970 following the introduction of high-yielding varieties and technology.

Analysis of agricultural total factor productivity, which is the ratio of total crop and livestock output to the combined set of all inputs including land, labour, capital, machinery and intermediate inputs like fertiliser and feed, shows that the change in global agricultural productivity nearly doubled from 0.87% in 1970-1989 to 1.56% in 1990-2006. However, this productivity came with a crucial dependency on fossil resources, with direct energy use for crop management and indirect energy use for fertilisers, pesticides and machinery production contributing to these unprecedented yield increases. The transformation was so complete that agriculture industrialised for a significant proportion of agricultural land, replacing traditional methods with chemical-intensive, mechanised systems.

Many books have been written on this technological marvel, most based on evidence demonstrating that modern agriculture’s yield achievements are inextricably linked to intensive practices and external inputs, representing a fundamental shift from traditional farming systems.

Hand-to-mouth food production evolved into field-to-mechanised harvesting, and although the yield and overall production increased to millions of tonnes, agriculture became a net energy sink.

And that wasn’t all.

It came with a huge environmental cost.

Imagine for a moment a farm without a tractor. It is somewhere in Northern Europe, perhaps in the mid-1800s.

It has a plough pulled by horses that also graze on paddocks. Crops are rotated, and stubble is fed to livestock. There is also a kitchen garden and plenty of chickens. The farmer and his family work hard, are multi-skilled, and are ever-resourceful.

Most farms without tractors practise mixed agriculture, growing cereals such as wheat, oats, and barley, and raising livestock including cattle, pigs, sheep, and chickens. Spring is a time for sowing and lambing; summer brings haymaking and sheep shearing; the harvest dominates autumn; and winter focuses on maintenance, feeding livestock, and making tools or clothing.

Labour is central to this tractorless farm life. A typical small farm relies on family members, sometimes with the help of agricultural labourers or seasonal workers, especially at harvest. Tools are mostly hand-powered scythes for cutting, flails for threshing, and ploughing is done with horses or oxen. Manure is collected and spread on fields to maintain soil fertility, and crop rotation is essential to prevent soil exhaustion.

Farms like this also tended to be small economic units, often producing much of what they needed while bartering or selling any surplus at local markets. Daily life included milking cows, churning butter, baking bread, brewing ale, repairing fences, and tending to kitchen gardens.

It was a tough but rewarding and productive life for the farmer and his family.

The arrival of the tractor on these small farms marked a turning point in agricultural history. With its ability to perform ploughing, tilling, and hauling faster and more powerfully than horses or manual labour, the tractor dramatically increased productivity. Tasks that once required entire teams of workers and days to complete could now be done in hours by a single operator. This mechanisation made it feasible to farm larger areas with fewer people and to cultivate heavier soils that had previously been difficult to manage.

However, the tractor also reshaped the social fabric of rural life.

As machines displaced workers, the demand for seasonal and hired hands declined. This contributed to a gradual depopulation of the countryside, as younger generations migrated to towns and cities searching for employment. Traditional skills associated with animal husbandry, hand tools, and communal labour practices began to fade. The economic model of farming shifted from self-sufficiency to market orientation, where investment in fuel, spare parts, and maintenance became part of the farm’s operating costs.

In time, the tractor symbolised the modernisation and industrialisation of agriculture. It allowed for the integration of chemical fertilisers, monoculture cropping, and intensive land use. Small farms were consolidated into larger ones. All of which increased short-term yields but also introduced ecological pressures, such as soil degradation and dependence on fossil fuels.

The scale of ecological damage is sobering, with an estimated one-third of global arable land degraded by erosion, pollution, and overuse in the past 40 years. Scientific assessments from organisations such as the United Nations Food and Agriculture Organisation (FAO) and the Intergovernmental Science-Policy Platform on Biodiversity and Ecosystem Services (IPBES) support the claim that land degradation is a major global concern, with substantial portions of arable land affected.

The FAO has warned that if current trends continue, 90% of Earth’s topsoil could be degraded by 2050. A 2017 UN-backed study estimated that about one-third of the world’s land is already moderately to highly degraded, a figure often interpreted as including arable land.

Soil degradation includes erosion, salinisation, compaction, nutrient depletion, and chemical pollution from overuse of fertilisers and pesticides. All these factors reduce soil fertility and productivity affecting yields and, in the extreme, lead to abandonment of farmland or the need for costly remediation. However, not all degraded land is permanently lost as some farms remain viable with diminished yields, notably through subsidies, while other areas can be restored through regenerative practices, though at great effort and cost.

The impact of intensive agriculture on soil health is particularly severe. The application of synthetic nitrogen fertiliser decreases the soil’s microbiological diversity and can lead to soil acidification. Excessive fertiliser use leads to salt buildup, heavy metal contamination, and nitrate accumulation that pollute water systems. Agriculture has caused massive biodiversity losses globally through habitat conversion, pesticide and fertiliser pollution, and soil degradation.

Agriculture accounts for approximately 50% of anthropogenic methane production and 80% of anthropogenic nitrous oxide production. When natural land is converted to farmland, it removes essential nutrients and reduces the soil’s carbon storage capacity by 50-75%. In other words, agriculture generates a third of global greenhouse gas emissions.

And it is not just greenhouse gases. Agriculture is the leading source of pollution in many countries, with pesticides, fertilisers and other toxic farm chemicals poisoning fresh water, marine ecosystems, air and soil, often remaining in the environment for generations. Applying pesticides and fertilisers has increased heavy metal levels in soil, especially cadmium, lead, and arsenic. Some of this gets into the crops.

Feedback loops are especially troubling, where the consequences of an action reinforce the original problem. In the context of soil health, over-tilling, monocropping, and heavy chemical use degrade soil structure and fertility. This degradation reduces the soil’s ability to retain water and nutrients, leading to increased runoff, erosion, and further loss of organic matter. As the soil becomes less productive, farmers may apply more fertilisers and intensify cultivation, which only worsens the underlying problem—a classic positive feedback loop.

These loops are crucial because they shift agricultural systems into unstable states, where recovery becomes increasingly complex without systemic change. For example, the loss of soil organic carbon reduces fertility and impairs microbial life, which in turn slows carbon regeneration and nutrient cycling. Likewise, erosion reduces root stability and vegetation cover, further exposing the land to erosion. This cycle depletes the ecological resilience of the land, reducing its ability to buffer shocks like drought or flooding.

Understanding and breaking these feedback loops is essential for sustainable agriculture. Without intervention, such as adopting conservation tillage, cover cropping, and organic amendments, these reinforcing cycles degrade ecosystems. Over time, they threaten productivity, food security, and long-term soil viability on a global scale.

We need to know, for now, that the evidence shows comprehensive ecological costs of intensive agriculture across multiple systems, with impacts extending far beyond farm boundaries. This suggests that intensive agriculture is precarious for other reasons…

Modern high-yield farming runs on purchased power. Synthetic fertilisers, chemical pesticides and herbicides, diesel and steel are all paid for inputs. Irrigation water is moved and delivered on schedule. This combination can produce extraordinary short-term output, but the whole thing is a tightly coupled machine that assumes fossil fuels stay cheap, mined nutrients like phosphorus and potassium continue to flow, and supply chains persist.

When any of that is pinched through geopolitical tension, an energy price shock, or simple depletion, production stops being efficient and starts being fragile. The system creaks.

The same logic shows up in the ecology.

Yield-first systems tend to simplify the landscape into monocultures, and monocultures are poor at improvisation. They adapt badly to shifting climate conditions, they invite pest outbreaks, and they struggle to hold water and nutrients when stress arrives. In a warming world, that interaction matters. Climate extremes like heatwaves, droughts, and floods don’t just reduce yields on their own. They collide with a rigid, high-input structure and amplify the downside. Without buffers like biodiversity, soil health, and flexible cropping systems, a farm can look productive right until conditions drift off-script. Then the losses can be brutal.

And then there’s the money.

High-input systems carry exposure to both the cost of inputs and the price of outputs. When energy and fertiliser prices rise, margins thin fast, especially for small- and medium-scale farmers. The response is predictable. More debt to stay in the game, or consolidation when they can’t. But even if the farm gets bigger, the risk doesn’t go away.

In 2022, disruptions linked to the war in Ukraine, especially sanctions-related constraints on Belarusian potash exports and wider trade, finance, and logistics frictions affecting Russian fertiliser trade, contributed to sharp fertiliser price spikes. Countries highly dependent on imported fertilisers, including Brazil and many low-income farming regions in sub-Saharan Africa and South Asia, faced acute affordability pressure, raising the risk of reduced fertiliser application and localised yield losses, with consequent increases in food insecurity risk. The episode underscored how tightly yield-focused agriculture is coupled to global input flows, leaving limited slack for adaptation when those flows are interrupted.

The 2007–2008 global food price crisis was driven by a convergence of factors including rising oil and energy costs, climate-related production shocks (including drought impacts on major exporters such as Australia), and amplifiers such as low global grain stocks and export restrictions. The price shocks produced extreme volatility and social unrest across dozens of countries. High-input systems, especially in the Global South, were exposed as financially fragile under volatile global markets, with smallholder farmers disproportionately affected because they lacked buffers against sudden swings in input costs and output prices.

During extreme events like the 2012 drought, the largely rain fed corn–soybean systems of the U.S. Midwest that are dominated by simplified corn–soy rotations and high fertiliser use, took major yield losses, with corn hit hardest. The drought made the mechanism obvious. Simplified, input-intensive systems lean on favourable weather timing and thin soil-moisture buffering, so as heat and rainfall variability increase, they become a predictable point of failure.

Long-term field experiments point to a different kind of strength. Greater crop-rotation diversity and soil-building practices can lift yield resilience in hot and dry years compared with simpler rotations, by improving water retention and adding ecological buffering against erratic rainfall and temperature extremes.

Much of this comes down to the fact that intensive agriculture, while designed to produce food energy, is a net energy sink. The process of producing food at high yield uses more energy than it returns.

Just how much of a sink?

A detailed energy analysis of Danish agriculture highlights the extent of its reliance on external inputs. Estimates suggest that for every joule of fossil energy used in farming, processing, and transport, only about 0.2 to 0.3 joules of food energy are returned—an energetically inefficient system by natural ecosystem standards. Furthermore, the majority of essential plant nutrients are sourced externally through commercial fertiliser and imported animal feed that supply approximately 84% of nitrogen, and around 90% of both phosphorus and potassium. Fertility is being maintained primarily by sustained external throughput, not predominantly by solar-powered energy capture plus tight nutrient cycling that happens in natural ecosystems.

Once you stop looking only at the farm gate, the energy maths gets ugly. Modern food production often looks efficient in narrow terms, then flips when you count the whole agri-food system. Fertiliser manufacture, mechanisation, processing, cold storage, transport, and, most of all, livestock feed conversion stack up as external energy subsidies. Add those in and many high-income agri-food systems end up as net energy sinks (EROEI < 1). They burn continuous external energy, mostly fossil fuels, to deliver food calories.

That makes industrial food provisioning energetically and strategically fragile under energy price volatility, decarbonisation constraints, and tightening ecological limits, even when some individual crops still come out net-positive at the farm level.

All this dependence and precarity when there are 8 billion people and their pets to feed, with no sign of this demand declining for a long time, begs a troubling question, phrased here as the following premise; how long can it last?

Imagine you are the Minister of Agriculture in a liberal democracy. Urban voters, typically the majority, want low food prices, high safety standards, and environmental responsibility. They rarely farm but vote in large numbers and carry real weight on climate, biodiversity, and animal welfare. Rural communities are smaller but disproportionately influential, working through lobbying groups, rural electorates, and a powerful sense of national identity. Farmers want income stability, protection from market volatility, and swift government support when input costs rise, weather turns, or trade shocks land. When frustrated, they drive their tractors into the city and cause almighty traffic congestion.

Above all of this sit the macro pressures. Food security, climate adaptation, trade agreements, and budget competition from health, education, and defence mean every agricultural dollar has to be justified twice. Voters expect resilient food systems, fair prices, and ecological responsibility, and they disagree sharply on which matters most. Electoral cycles run on years. Soil recovery runs on decades. The politics are charged, and the short-term horizon makes serious long-term planning feel like a luxury the portfolio cannot afford.

Amidst this chaos, a soil ecologist comes along and asks to brief you on what she says is a crucial, existential double risk, namely the overexposure of intensive agriculture to fossil fuels and the ecological consequences of maximising yield on soil health.

You instruct your PA not to find the time.

You just can’t deal with existential right now. And, anyway, agriculture is a market, one of the very first, so it will sort itself out.

The focus on maximising short-term outputs, primarily yield and economic returns, has become a defining characteristic of industrial agriculture. This is understandable, given the Minister’s response and within the context of market incentives, policy metrics (e.g., GDP, tonnes per hectare), and political timelines, which all favour immediate, quantifiable results.

However, this narrow framing can obscure the long-term costs that accrue silently. Add up the dependencies and externalities across landscapes dominated by intensive agriculture and ecological limits are reached, especially planetary boundaries such as those related to nitrogen use, land-use change, and freshwater withdrawal that are routinely transgressed by yield-driven systems.

The premise, therefore, rightly draws attention to a dangerous mismatch between the temporal scale of political-economic decision-making and the long-time horizons over which sustainability and resilience must be built.

And none of it is news. Precarity has been building for a long time.

What seems like success when yields trend upwards is weakening the ability of soils and the farmers that farm them to maintain them into the future.

It’s a true paradox, so let’s state it as a premise and see if it holds….

UN-affiliated assessments warn that soil and land degradation could become widespread by mid-century if current trends continue. UNESCO, drawing on the World Atlas of Desertification, has reported warnings that up to 90% of the planet’s land surface could be degraded by 2050, while FAO synthesises evidence that roughly one-third of the world’s soils are already degraded.

These are not trivial claims. Degradation of this magnitude threatens food security not only through physical erosion, but through declining soil function, specifically loss of organic matter and soil carbon, disrupted nutrient cycling, compaction, salinisation, acidification, contamination, and the associated weakening of soil biodiversity.

The United Nations system also reports that land degradation is already extensive and accelerating. A widely cited UN-linked estimate is that around 24 billion tonnes of fertile soil are lost each year, largely through erosion, and that about a third of soils are moderately to highly degraded by processes including erosion, salinisation, compaction, acidification, and chemical pollution. These trends reduce productive capacity and resilience, increasing vulnerability to drought, heat, and other climate stresses.

This isn’t just an environmental problem; it’s undermining the foundation of agriculture itself.

And, of course, there is more.

Water systems face parallel pressures. The agricultural sector consumes over two-thirds of the planet’s freshwater, and without innovative conservation measures, agricultural production uses excessive water and degrades water quality, thereby adversely impacting freshwater systems worldwide.

Over the past decade, pollinator numbers have declined due to the combined stress of parasites, pesticides, and habitat loss. Pollinators are essential for over 75% of the world’s food crops, particularly fruits, vegetables, nuts, and oilseeds. Their decline undermines agricultural productivity and increases dependence on managed pollination, which is costly and less reliable, illustrating a self-defeating feedback loop between farming practices and ecosystem services.

Increasingly, agriculture is running into negative feedback loops that look like mounting systemic stress. In many regions, holding yields steady now takes more fertiliser and pesticide, just to compensate for soil that is slowly losing function. The decline isn’t only nutrient depletion. It’s the long tail of intensive chemical use and the steady erosion of organic matter.

Heavy machinery doesn’t just speed things up. It leans on the soil until the pores collapse. Compaction shuts down infiltration and oxygen. Microbes slow. Nutrient cycling gets sticky, then starts failing in predictable ways.

This is what limits to growth looks like when it arrives in a paddock. The same levers that drove expansion and control, mechanisation, synthetic inputs, intensification, start eating the foundation they rely on. And the evidence is not subtle. Current practice is degrading the ecological basics that sustained agriculture in the first place. That leaves an ugly constraint sitting in the middle of the conversation.

We still have to grow enough food to feed 8 billion people and their pets.

Agriculture began as a pantry. A way to store what the sun had grown, stay in one place, and outlast the lean season. For twelve millennia that logic held. The system was slow, imperfect, and hungry at the margins, but it ran on solar income. What came out of the ground had come in from the sky.

The Green Revolution broke that loop. Yields tripled, then quadrupled, and the population followed. The mechanism was energy. Colossal, cheap, fossil energy poured into fertiliser synthesis, mechanisation, irrigation, and transport. For every joule returned as food, modern agri-food systems burn several in. The pantry is still full. The fuel bill is what we don’t talk about.

At 8 billion people, there is no backup system. The soil that intensive farming has spent down over seventy years does not recover on electoral timelines. The phosphorus mined from rock to grow the grain does not return. The aquifers drawn down for irrigation do not refill. The process is already underway.

Our ancestors built the pantry to escape scarcity. We filled it with oil. The arithmetic leaves one question. How long the credit runs before the shelves show what is actually behind them.

Notes & Sources (for the curious)

Scale of the story (people + output)

• Population totals & growth windows (1960s→today) — UN DESA World Population Prospects (2024); World Bank Data (population series, 2025)

• Cereal yields/production since 1961 (and how much rose) — FAOSTAT (2025); Our World in Data (FAOSTAT-based summaries, 2025).

Energy: “oil into food” (system boundary matters)

• Food-EROI / net energy sink framing for modern agri-food systems — Rasul et al. (2024); Markussen et al. (2013)

• Danish system specifics (low food energy return; externalised N/P/K) — Markussen et al. (2013).

• Why nitrogen fertiliser is an “embedded energy subsidy” (Haber–Bosch scale) — IEA Ammonia Technology Roadmap (2021); FAO soil/erosion key messages referencing soil degradation pathways (context for why fertiliser dependence matters).

Soil, water, biodiversity: the ecological balance sheet

• Soil degradation scale (33% degraded; “>90% by 2050” warning) — FAO/ITPS (2015, as summarised by FAO Soil Erosion Symposium key messages); FAO newsroom soil erosion explainer (2019).

• “24 billion tonnes of fertile soil lost each year” — UNEP / International Resource Panel (2016); UNCCD synthesis citing FAO estimate.

• Agriculture’s share of freshwater withdrawals (~70%) — UNESCO World Water Development Report stats (2024); FAO “Water for Sustainable Food and Agriculture” (FAO brief).

• Pollinators & food production dependence (“~75% of crop types”) — IPBES Pollination Assessment (2016)

Shocks, tight coupling, and volatility

• Fertiliser price spike around the Ukraine war (2022) and supply-chain exposure — World Bank Commodity Markets Outlook (Apr 2022); USDA ERS overview of fertiliser market disruption (2023).

• Food-price crisis drivers (2007–08) and volatility mechanics — FAO explainer on the 2007/2008 crisis; World Bank synthesis on price volatility (2011).

• Weather extremes hitting simplified systems (2012 US drought example) — USDA ERS “Charts of Note” on 2012 corn yield impacts; NOAA drought reporting for 2012.

“Yield isn’t the only KPI” (regenerative / organic evidence)

• Regenerative profitability vs yield; pest “paradox” (10× pests with insecticides) — LaCanne & Lundgren (2018)

• Organic vs conventional energy-use efficiency (paired farm comparisons) — Chmelíková et al. (2024).

Primary Sources

Chmelíková, L., Schmid, H., Anke, S., & Hülsbergen, K.-J. (2024). Energy-use efficiency of organic and conventional plant production systems in Germany. Scientific Reports, 14(1), 1806.

Giller, K. E., Hijbeek, R., Andersson, J. A., & Sumberg, J. (2021). Regenerative agriculture: an agronomic perspective. Outlook on agriculture, 50(1), 13-25.

Harchaoui, S., & Chatzimpiros, P. (2018). Can agriculture balance its energy consumption and continue to produce food? A framework for assessing energy neutrality applied to French agriculture. Sustainability, 10(12), 4624.

LaCanne, C. E., & Lundgren, J. G. (2018). Regenerative agriculture: Merging farming and natural resource conservation profitably. PeerJ, 6, e4428.

Markussen, M. V., & Østergård, H. (2013). Energy analysis of the Danish food production system: Food-EROI and fossil fuel dependency. Energies, 6(8), 4170–4186.

Pretty, J., Benton, T. G., Bharucha, Z. P., Dicks, L. V., Flora, C. B., Godfray, H. C. J., ... & Wratten, S. (2018). Global assessment of agricultural system redesign for sustainable intensification. Nature Sustainability, 1(8), 441-446.

Rasul, K., Bruckner, M., Mempel, F., Trsek, S., & Hertwich, E. G. (2024). Energy input and food output: The energy imbalance across regional agrifood systems. PNAS Nexus, 3(12), 524.

Woods, J., Williams, A., Hughes, J. K., Black, M., & Murphy, R. (2010). Energy and the food system. Philosophical transactions of the Royal society B: Biological Sciences, 365(1554), 2991-3006.

Outside the kitchen, somewhere else, someone else is growing the next crop. Because the world eats rice all the time.

The Hard Number

Modern rice is a story about continuous global throughput constrained by land, water, energy, and milling capacity.

The latest USDA and FAO data put annual global consumption at approximately

This one staple supplies about 17–20% of the total calories consumed by the global population, feeding over 3.5 billion people daily.

Framing the hard number

Millions of tons are impossible to visualise.

Let’s try one metric ton (1,000 kg) of rice, and it helps to switch from weight to space and packaging, to make the visuals easier. One metric ton would be a little over 1 cubic metre (40 cubic feet.) A standard built-in dishwasher is roughly 8 cubic feet. If you were to stack five dishwashers in a neat 2x2 pile with one on top, you would be looking at the volume of one measurement ton.

In the global market, rice is most commonly transported in 50 kg (110 lb) sacks, so a ton is 20 sacks, which, on a standard wooden shipping pallet, 20 sacks would stand about chest-high for an average adult.

If you tried to count every grain in that one-ton pile, you would get to roughly 50 million individual grains of rice.

A ton of rice is an enormous amount of food in human terms that can provide the main daily caloric intake for roughly 5,500 people for one day, or feed a family of four for about 3 to 4 years if rice is their primary staple.

Behind the hard number

Some basic rice.

Rice arrives in your kitchen as milled rice, but it is grown and harvested as paddy (rough rice), which is then processed. During processing, rice loses about 30 per cent of its weight, depending on recovery rates and equipment.

That detail matters because global consumption is reported on a milled basis, while yields and farm realities often start on a paddy basis. A typical global standard milling recovery is roughly 70 per cent, with modern multi-stage mills around 65 per cent and traditional village mills as low as 50 to 55 per cent.

So the causal chain looks like this.

People demand milled rice for food, but milled rice depends on a paddy harvest, and that harvest depends on land, water, labour, fertiliser, machinery, and timing; then milling adds its own dependencies of energy, equipment, and quality control.

The big challenge with 544 million metric tons of milled rice is that this is far too much to store for any length of time. In small batches, like the bag in your pantry, it will keep for a year or more so long as oxygen, moisture, light, and pests are constrained. But millions of tons is a civil engineering problem.

The dominant structure is the vertical steel or concrete silo, with a single large unit holding between 10,000 and 20,000 tons. The central technical challenge is temperature. A single hot spot in a large silo triggers mould or spontaneous combustion, so computer-controlled aeration systems push air through perforated floors to keep the mass uniform. In tropical climates, grain chillers drop temperatures to around 15 degrees Celsius, putting insects into a biological coma. For long-term national stockpiles, nitrogen injection at 99 percent concentration replaces the atmosphere entirely, killing all pests without chemical residue. Traditional bag storage without climate control loses between ten and fifteen percent to rodents and spoilage. Modern industrial storage holds annual losses below one percent, assuming that infrastructure exists.

Some rice can be stored for a time, although not very effectively in the traditional shed, but you cannot store your way out of a system that needs to deliver roughly 1.5 million tons every day.

That level of throughput means we have to grow it.

Assuming a paddy yield of 5 tons per hectare and a milling recovery rate of 70 per cent, feeding the world’s rice appetite for one day would require harvesting roughly 426,600 hectares, the area of Rhode Island or Dubai.

Two things to notice.

Rice, like most staple foods, is primarily a throughput story. This means it is not really about how much land rice uses in the abstract, but how much land-equivalent must perform successfully today and tomorrow. The scale is also fragile because it rests on a stack of assumptions, and small shifts in those assumptions move the result a long way.

If yields are around 10 t/ha as a plausible upper benchmark, the land required for a day roughly halves to about 213,000 hectares; if yields are around 2.2 t/ha as a plausible lower benchmark, it jumps to about 970,000 hectares; and if milling recovery drops to 55 per cent, the hectares required rise even if field yield stays the same.

Most public narratives skip these assumptions. Food security is often framed as a seasonal production challenge, but rice behaves more like a daily systems-performance requirement, where weak links show up fast.

The Deeper Pattern

Rice is a food staple, and there are two stories people like to tell about staples.

One is the progress story where yields go up, technology improves, markets smooth volatility, and everyone gets fed.

The other is the moral story. If there is hunger, someone is hoarding; if there is greed, someone is failing ethically.

Both stories dodge the throughput constraint.

The system has to keep converting water, land, nutrients, and energy into edible calories at scale. That conversion can be buffered a little, but it cannot be paused. You can be ahead of the curve for a season. You cannot be ahead of the curve forever.

That is why the institutional theatre is so persistent.

Institutions prefer numbers that are legible, flattering, and easy to repeat. If there are 185 million tons of rice stocks, it sounds like control. Record yields sound like inevitability. The manual calls this measurement hygiene. Without clear boundaries, denominators, and source provenance, numbers become comfort objects.

And there is a second incentive layer.

Rice demand growth is shifting, with Sub-Saharan Africa often identified as the fastest-growing demand region and potentially contributing around 27 per cent of global consumption growth over the next decade.

That makes this a policy and infrastructure story as much an agronomy story about import dependence, milling and storage investment, port capacity, logistics, and foreign-exchange constraints can matter as much as seed varieties. The comforting institutional habit is to compress a complex system into one lever, usually yield, and one reassurance, usually stocks because that is repeatable and meeting-friendly, but it is a poor guide.

Rice yield is not simply biology; it is water control, land preparation, fertiliser, diesel and pumping, reliable milling power, transport capacity, and an increasingly climate-shaped risk profile that can break any link in the chain.

Being a Mindful Sceptic

A mindful sceptic uses curiosity and critical thinking to rigorously question ideas and demand evidence, while being aware of what matters, when it matters, and how to avoid the trap of cynicism.

Three mindful sceptic moves are worth making with the rice number.

Convert annual to daily. Any food security claim anchored to annual production or stock figures is hiding the throughput reality. Ask what must be true today, not what looked good in last season’s harvest report. The hectares-per-day frame is a useful diagnostic precisely because it is uncomfortable.

Follow the conversion losses. Milling recovery is where the same field output becomes a different edible supply depending on equipment, power, and quality control. A yield improvement running through a 50% village mill is not the same as one running through a modern 70% facility. That distinction rarely appears in the headline number.

Treat buffers as institutional, not physical. A stockpile is only a buffer if it is accessible under stress, in the right form, at the right place and time. Who holds it and under what release rules matters as much as the tonnage figure.

For any rice statistic you encounter, including those above, apply the same test. State the value, unit, year, geography, denominator, system boundary, and source. If you cannot fill those fields, downgrade the claim.

Key Points

• Rice is a daily throughput system, not just a food category. With global milled-rice consumption on the order of ~544 million tonnes per year in 2025, even one day of rice requires an enormous amount of successfully functioning land and logistics.

• Yield is inseparable from infrastructure because milling recovery is a conversion bottleneck, meaning the same field output can translate into very different edible supply depending on milling equipment, power, maintenance, and quality control.

• Buffers are political, and so are the numbers. Large stockpiles don’t automatically equal resilience if they are held domestically and released according to national priorities

• Institutions prefer repeatable, flattering metrics, so a mindful sceptic converts annual claims into daily requirements and applies measurement hygiene before treating any headline number as load-bearing.

Back to the Front

The biryani is ready and delicious; a small domestic event.

But rice is not small. It is the visible end of a process that has to succeed again tomorrow, and once more the day after that, on land, water, and energy; we do not get to renegotiate.

Precarious Plenty argues that feeding a still-growing global population is a systems problem, not a supply problem. Apparent abundance coexists with chronic hunger because access is blocked by poverty, power, conflict, and policy, and because highly centralised supply chains trade resilience for efficiency. This leaves prices and availability exposed to cascading shocks. A calorie-first definition of food security compounds this by hiding diet quality, micronutrient deficiency, and the erosion of food sovereignty. At the production end, intensification, climate volatility and water stress reveal how brittle production has become. The conclusion is that real food security requires systemic redesign toward fair access, decentralisation, ecological resilience, and locally rooted sovereignty. Doubling down on industrial intensification leaves the underlying fragility intact.

Today, there are roughly 8 billion people on Earth. An hour from now, another 8,000+ will have been added to the total. Despite everything the western media tells you, the global population continues to increase at around 70 million per year, a rate of 0.84%, that’s a net daily increase of 190,000 people.

Like all mammals, the existing population and the new arrivals have to eat, or they will starve. Miraculously, global agriculture produces enough calories to feed everyone. One billion loaves of bread, 3.8 billion eggs and over 2 billion litres of milk are consumed every day.

And yet over a billion people go to bed hungry and a billion more are overweight or obese. It’s a true paradox that could either unfold further because of such a large and complex global food system necessary to deliver all the food calories, or it could collapse into chaos due to the desperation of the hungry and the healthcare needs of the malnourished.

It’s a complicated problem. Or is it complex?

Complicated problems are like intricate machines, such as a modern tractor with some dodgy sensors. They may be resource-intensive, but they are ultimately solvable with sufficient expertise, coordination, and the right tools. Complicated problems respond well to top-down planning, improved logistics, and enhanced technical capacity. Some are even solvable by a novice with access to a chatbot. Examples include fixing a fuse and extend to building infrastructure or improving bureaucratic efficiency.

When we mistakenly treat complicated problems as complex problems, which are inherently unpredictable, adaptive, and interdependent, we may over-engineer solutions or introduce disruptive reforms that add confusion rather than clarity. This misdiagnosis often leads to paralysis, wasted effort, or the dismantling of systems needing better management.

Complex problems are different. They have numerous interconnected parts that involve feedback loops, emergent behaviours, and nonlinearity. They cannot be solved by adding resources or refining existing structures; instead, they demand systemic shifts, iterative learning, and adaptive responses. More refined versions of what went before rarely fix them.

Suppose problems like climate change, public health inequity, or educational disengagement are mischaracterised as merely complicated. In that case, the response involves technocratic fixes and optimisation strategies that may appear productive in the short term but fail to create lasting change. The result is often a cycle of repeated interventions that treat symptoms rather than root causes.

Accurately distinguishing between complicated and complex problems is crucial for effective policy and strategy. While complicated problems benefit from expertise, planning, and control, complex problems require humility, experimentation, and collaboration across disciplines and sectors. Mistaking one for the other distorts both diagnosis and remedy, potentially escalating crises that could otherwise be resolved or adaptively managed.

So let’s consider food, specifically the challenge of feeding people.

The prevailing approach to global food security often assumes it is a complicated problem that can be solved with more technology, higher yields, improved supply chains, and targeted aid. This perspective views hunger and malnutrition primarily as issues of insufficient production or inefficient distribution, which are technical challenges that can be addressed through better data, biotechnology, logistics, or funding.

This mindset has pulled decades of global investment toward agricultural intensification by treating the Earth like a factory floor that just needs better machinery. Build GMOs. Scale high-input irrigation. Add precision farming with GPS and data analytics used to micromanage soil nutrients. Turn food production into a high-efficiency, predictable science.

And global caloric production has surged. The sheer volume of food moving through international markets is higher than at any point in human history. But availability is not the same thing as access. These solutions lean on expensive technology and brittle trade logistics, so they often route around the smallholder farmers and marginalised communities who most need resilience. So food is more abundant than ever, and yet food insecurity persists because the technical fix never touches the poverty, land rights, and systemic inequality.

In reality, food security is a complex problem. It is about food availability, access, and use, as well as the stability of these factors over time, all of which are entangled with, social inequality, land rights, water access, trade policies, and cultural practices. Hunger can persist even when food is plentiful because of poverty, displacement, systemic exclusion, or broken governance. Then climate disruptions, such as droughts or floods, can unpredictably ripple through global markets and local livelihoods. Thus, food insecurity demands more than technical fixes; it requires coordinated action across agriculture, economics, health, environment, and human rights, often involving conflicting interests and uncertain outcomes.

And because all that involves people, it is innately complex. We might even call it wicked.

Mainstream food security discourse often attributes persistent hunger to logistical challenges, poverty, and regional conflicts. It is tackled as a complicated food distribution problem that can be solved through improved infrastructure, economic development, and humanitarian aid while maintaining current production systems.

However, hunger could persist because current economic systems actively concentrate resources and power, making hunger profitable for some actors through land speculation, commodity trading, and the maintenance of cheap labour.

There is also a view from ecological economics and mirrored everywhere on Mindful Sceptics, that the apparent plenty in food production worldwide is artificially maintained through fossil energy subsidies and an ecological debt that makes current production levels unsustainable, meaning we’re borrowing from future food security to create present abundance.

But before we go too deep into the reasons for the precarity, let’s begin with the premise that there is enough food to go around.

Global production of primary crops reached 9.7 billion tonnes in 2024, maintaining high levels despite a slight 2% dip from the 2023 peak, while meat production rose to 374 million tonnes. Additionally, the global agricultural value added reached $4.0 trillion in 2023.

According to the FAO’s State of Food Security and Nutrition in the World 2025 report, global food production generated approximately 2,985 calories per person per day. This remains significantly higher than the average minimum dietary energy requirement of 2,100–2,500 calories per day.

I explain more of how this happens in this Mindful Sceptic Guide

Yet paradoxically, between 638 and 720 million people faced hunger in 2024, while 2.3 billion people experienced moderate or severe food insecurity. This isn’t a rounding error; it represents close to a third of the global population and is a fundamental indictment of how we’ve organised our food systems.

If the 550 million farmers worldwide produce enough calories to feed everyone, then food security is a distribution and access problem, a system failure. The evidence is overwhelming and consistent across multiple authoritative sources that we live in a world of artificial scarcity created by systemic inefficiencies rather than production limitations.

Poverty, conflict, and weak governance block access to available calories, while crumbling infrastructure prevents surplus food from reaching hungry populations. Malnutrition reflects the absence of diverse, nutrient-rich foods, particularly for vulnerable groups like children and pregnant women. Meanwhile, we waste one-third of all food produced through spoilage and poor planning. This waste is a glaring symptom that hunger in our food-abundant world signals distribution failure, not production inadequacy.

And we are generally soothed by theory.

While food is plentiful at a global scale, the persistent and growing levels of food insecurity reflect deep-seated socio-political and economic inequalities that demand structural reforms rather than just increased production.

Neoliberal theory tells the reassuring story that if we let markets work, let economies grow, then access will improve over time. And if access breaks in the meantime, you patch it with targeted interventions of food aid and safety nets without disturbing the efficiency of global markets.

Political ecology tells a different story, that access isn’t a lagging indicator of development but a product of power. Wealthy nations and corporations extract resources from food-producing regions, then concentrate value-added processing and retail profits elsewhere. The system doesn’t fail to deliver access. It is structured to deliver value upward.

And then there are traditional food systems. Many of them produced more equitable access through community-based resource management. But they weren’t simply outcompeted. They were systematically dismantled by colonial and capitalist expansion.

Amartya Sen’s seminal work, particularly in Poverty and Famines (1981), introduced the concept that famines are less about the absence of food and more about people’s inability to acquire it—a condition he termed entitlement failure. Sen demonstrated this with historical case studies, notably the 1943 Bengal Famine, where food was available, but inflation, wage collapses, and policy failures prevented the poor from accessing it. He concluded that famine vulnerability arises from the breakdown of economic, legal, and social mechanisms that allow people to claim food.

This theory isn’t abstract. It shows up, intact, in modern crises.

Take the 2011 famine in Somalia. Food existed in regional markets, but armed conflict and displacement prevented reliable movement. And as public institutions collapsed, humanitarian response was restricted. The bottleneck was access; people couldn’t reach the food, and couldn’t afford it when they could.

Or take the 2008 global food crisis. Speculation, biofuel demand, and trade restrictions pushed prices sharply upward and riots followed in over 30 countries, including Egypt, Haiti, and Bangladesh. Global food stocks weren’t critically low, but prices surged, and basic staples were unreachable for millions.

Clearly, solving hunger requires more than growing more food.

Countries with similar levels of agricultural productivity can experience vastly different hunger rates, primarily due to differences in political institutions and economic management. Yemen, a country that imports approximately 90% of its food, faces severe food insecurity. The ongoing conflict has disrupted supply chains, destroyed infrastructure, and devastated economic livelihoods, leading to widespread famine conditions. According to the World Bank, over 20 million people, or about 68% of Yemen’s population, are food insecure, with 10 million at risk of famine.

These dire circumstances persist despite the availability of food in global markets, underscoring that the crisis stems more from political instability and economic collapse than from agricultural insufficiency.

During the COVID-19 pandemic, global food production remained relatively stable. However, the pandemic’s economic and logistical disruptions led to a significant rise in food insecurity. According to the 2022 Global Report on Food Crises, nearly 193 million people in 53 countries experienced acute food insecurity in 2021, an increase from previous years.

In the United States, the pandemic disrupted food distribution channels, leading to paradoxical situations where food waste and hunger coexisted. With the closure of restaurants, schools, and other food service venues, farmers faced reduced demand and logistical challenges, resulting in the destruction of perishable goods like milk and vegetables. Simultaneously, food banks experienced unprecedented demand. Feeding America reported that 98% of food banks saw an increase in demand for food assistance, with many struggling to meet the needs of their communities.

The overwhelming weight of evidence from development economics, conflict studies, and pandemic responses confirms that access barriers, not production capacity, drive contemporary food insecurity.

And this suggests that the problem might be in the supply chain more than in production.

The efficiency of globalised food systems is undeniable. They have enabled unprecedented food variety and reduced costs for consumers, particularly those who shop in supermarkets, while allowing countries to specialise in their comparative advantages in growing food. The average grocery store stocks products from over 50 countries, and trade flows worth USD 2.0 trillion annually ensure year-round availability of diverse foods. Globally, the supermarket sector is substantial, with the food and grocery retail market valued at approximately USD 12.7 trillion in 2025.

However, this efficiency that is familiar to about 2 billion people comes at the cost of resilience.

In March 2021, the Ever Given, a massive container ship, became lodged in the Suez Canal, one of the world’s most critical maritime choke points, handling approximately 12% of global trade. The blockage lasted six days, during which an estimated $9.6 billion worth of goods were held up each day. Hundreds of ships were delayed and because the Suez Canal handles approximately 7% of the global grain trade and a significant portion of the world’s fertilisers and perishables, the six-day closure triggered immediate spikes in shipping costs and regional food prices. While non-perishable grains faced logistical delays and increased insurance premiums, the most acute impact was felt by the fruit, vegetable, and livestock sectors; thousands of containers of fresh produce were at risk of spoilage, and ships carrying live animals faced critical shortages of feed and water.

Corporate concentration is another pressure point in the global food system. Six companies control 58% of the global commercial seed market and 78% of the agrochemical market. And in grain, a small cluster of multinationals, often labelled the ABCD companies (Archer Daniels Midland, Bunge, Cargill, and Louis Dreyfus), alongside a few others, controls a significant share of global trade.

When seeds, agrochemicals, and grain flows are dominated by so few players, the risks aren’t theoretical. Competition thins and farmer autonomy narrows. And the system’s ability to adapt starts to depend on the incentives and fragilities of a concentrated corporate stack.

A cyberattack on JBS, a leading global meat processing company, significantly disrupted operations across the United States, Canada, and Australia in 2021. The ransomware attack, attributed to the REvil group, forced the temporary closure of multiple facilities, including all JBS-owned beef plants in the U.S., which process approximately one-fifth of the nation’s beef supply. This incident highlighted the food industry’s reliance on digital systems and the potential for cyber threats to cause widespread operational disruptions.

Globalised food systems are efficient and profitable. But they are brittle and vulnerable to shocks. It is a classic cost of efficiency.

Beyond the physical movement of grain, there is a growing concern regarding the financialisation of food, where commodities are increasingly treated as abstract financial assets rather than essential human needs. In this environment, food prices can become dangerously decoupled from material reality. When pension funds and hedge funds pour billions into commodity index funds, price movements are often driven by high-frequency algorithmic trading and macroeconomic shifts—like interest rate changes or currency fluctuations—rather than actual harvest yields or soil conditions. This speculative pressure can create price bubbles that generate artificial scarcity, making basic staples unaffordable even when global silos are full. Essentially, the global food system has been partially transformed into a high-stakes casino, where the fluctuations on a screen in London or Chicago have immediate, life-altering consequences for a family in the Global South.

And then there is the legacy of colonial exploitation, where food imports to the Global South create structural vulnerabilities that can be weaponised by dominant powers, making food security a tool of geopolitical control.

Economics and politics are rarely all good, and they can combine to dramatically affect food prices and availability, which gives us the next premise.

Before Russia’s invasion of Ukraine in 2022, both countries were pivotal players in global agriculture. Together, they accounted for approximately 29% of global wheat exports and 75% of sunflower oil exports. Ukraine alone was responsible for exporting over 60 million tons of grain annually, making up about 10% of the global market.

The onset of the war led to immediate disruptions in these exports. Russia’s blockade of Ukrainian ports in the Black Sea and attacks on agricultural infrastructure severely hindered Ukraine’s ability to export grain. This blockade was not merely a byproduct of the conflict but was perceived by many international observers as a strategic move had profound effects on global food prices. According to the FAO Food Price Index, wheat prices increased by 69%, and corn prices rose by 36% within six months of the invasion. The deliberate targeting of Ukraine’s agricultural sector, combined with the blockade of exports, underscores the strategic nature of Russia’s actions, which have been described as weaponising food by various international entities.

By early 2026, the situation in the Black Sea had transitioned into a persistent, high-stakes logistical battle. While global food prices have stabilised significantly since the wheat price surge of 2022, the system remains fragile. Ukraine has restored its export capacity to nearly 50 million tons of grain annually by bypassing Russian blockades via a new, independent coastal corridor that has successfully moved over 100 million tons of cargo since late 2023. However, Russia continues to target Ukrainian port infrastructure and has made roughly 2 million hectares of fertile Ukrainian land uncultivable due to mines. Ultimately, the crisis has shifted from an immediate threat of global famine to a long-term struggle over agricultural dominance, where the physical destruction of infrastructure and land serves as a tool to permanently reshape global trade dependencies.

Financial speculation doesn’t just react to geopolitical disruption. It can magnify it through what economists call the financialisation of food commodities. Food is something to eat, but also a financial asset to hold.

In the U.S., the Commodity Futures Modernization Act of 2000 allowed for increased speculative investment in agricultural commodities. One result was the rise of commodity index funds, which bundle commodity futures, including food items, into investor-facing products. By the late 2000s, these funds had built large positions in agricultural futures markets, with estimates suggesting holdings worth over $200 billion.

When that much capital floods in, volatility stops being a side effect and starts to look like a feature. During the 2007–2008 food crisis, speculative positions in maize futures increased by approximately 1,900% between 2003 and March 2008. Commodity index fund holdings ballooned from $13 billion in 2003 to $317 billion by 2008. Food prices followed the heat, as wheat rose by 127% and rice by 170% between January 2005 and June 2008. The Food and Agriculture Organisation (FAO) estimated these increases pushed an additional 40 million people into hunger in 2008, raising the overall number of undernourished people to close to a billion.

The vulnerability of import-dependent nations creates additional leverage points for geopolitical manipulation. Countries in the Middle East and North Africa, which import 85% of their wheat, become hostage to the foreign policy decisions of supplier nations. When India banned wheat exports in 2022 due to domestic heatwaves, it immediately affected food security in over 40 countries, despite representing only 1% of global wheat trade.

These cascading effects disproportionately impact the world’s poorest populations, who spend 50-70% of their income on food compared to 10-15% spend in developed nations, making them extremely vulnerable to price shocks regardless of local food availability.

And all this is about to become more complex under a changing and increasingly unpredictable climate.

For many farmers, weather has gone from a manageable risk to an unpredictable adversary. The IPCC’s sobering projections of potential yield reductions of up to 25% by mid-century put numbers on what farmers worldwide already know in their bones. Traditional growing seasons are breaking down. Rainfall has turned erratic. What worked for generations no longer holds. In many places, the weather is not just hotter and more volatile. It is less legible in systems that rely on seasonal reliability. From European droughts decimating corn harvests to Indian heatwaves triggering wheat export bans, climate volatility is exposing the brittleness beneath our food system’s apparent abundance.

Both high-tech industrial agriculture and traditional subsistence farming prove vulnerable, but for opposite reasons. Industrial monocultures, optimised for efficiency under stable conditions, crash spectacularly during extreme events. Meanwhile, smallholder farmers, lacking access to climate information or adaptive technologies, suffer disproportionately from even modest climate deviations.

Most critically, water stress is redrawing the map of agriculture. California’s Central Valley once produced 40% of America’s fruits and vegetables. Now it is literally sinking as aquifers collapse. Meanwhile, the rainfall patterns that once anchored generations of African farmers have become so unreliable that entire growing seasons are being lost.

And this isn’t a single-study alarm bell. Multiple lines of research, from climatology, agricultural science, and hydrology, point to climate change as increasing agricultural unpredictability and exposing foundational vulnerabilities in both industrial and subsistence farming systems.

So far, we have considered the abundance in production and precarity from the socio-economic perspective of food, but there is another aspect that needs attention.

It is not just calories that matter in food security.

The conventional definition of food security is when all people, at all times, have physical and economic access to sufficient, safe and nutritious food. It sounds comprehensive, but it can be surprisingly difficult to measure.

Global monitoring still leans hard on the FAO’s Prevalence of Undernourishment (PoU), a national-level estimate of caloric deficiency built from statistical models, not direct measurement. The problem is what that choice hides. It smooths away within-country inequality, and it says nothing about micronutrients, diet quality, or whether the food system producing those calories is sustainable.

Meanwhile, hidden hunger is anything but hidden in its effects. Micronutrient deficiencies affect more than 2 billion people worldwide, with impaired cognitive development, weakened immunity, and higher mortality risk, especially for children and women of reproductive age.

And the calorie-first lens misses diet quality. When metrics treat food security as energy intake, they can miss the double burden of malnutrition—undernutrition and overweight or obesity coexisting in the same communities, families, or even individuals. The Lancet’s 2020 series on the double burden of malnutrition suggests you don’t solve modern malnutrition with a single-axis measure, and you don’t fix it with siloed interventions.

India exemplifies this paradox.

Despite significant progress in increasing caloric availability, the country continues to grapple with high rates of child malnutrition. According to the 2025 Global Hunger Index and the latest Joint Malnutrition Estimates, approximately 33% of Indian children are stunted, 19% are wasted (the second-highest rate in the world), and 32% remain underweight. These issues are largely attributed to poor diet quality and micronutrient deficiencies, rather than insufficient calorie intake.

Indigenous communities worldwide maintain traditional food systems that often sit outside formal market channels. Under conventional assessments, they can be misclassified as food insecure because the metrics are built to see purchased calories, not practiced provisioning. But research points in the opposite direction on outcomes. Traditional food systems can deliver superior nutrition and stronger environmental sustainability. Studies have shown that Indigenous food systems contribute meaningfully to biodiversity conservation and support diverse, nutrient-rich diets, benefits that don’t always register in market-centred measures, even when they’re doing the work of real security.

When policy fails to recognise the value of food sovereignty and traditional food practices, it can end up doing quiet damage. It undermines the very systems that build resilience, preserve culture, and protect ecological health. That’s why food sovereignty has to be integrated into food security assessments if we want a more holistic picture of global nutrition and sustainability challenges.

Mainstream policy tends to stay wedded to incremental reform. In food, that usually means smoother supply chains, new technologies, and wider market access while keeping global trade and industrial agriculture intact. More of the same, with a few tweaks.

But with a global population already over 8 billion and growing at 8,000+ people per hour, slight efficiency gains becomes a high-risk bet in a system we already know is precarious. Real food security will require more radical moves. That could mean a fundamental reduction in resource consumption by wealthy populations to make space for equitable access globally. It could also mean new, locally adapted production systems built for specific ecological and cultural contexts, systems that reduce dependence on fragile global networks.

Whatever the approach, a rethink is not just academic. It means that people will starve or not, that children will be developmentally impaired or not, and so we get to the last premise for precarious plenty.

Cuba’s agricultural transformation after the Soviet Union’s collapse is a rare natural experiment in rapid food-system reorganisation. When it lost 80% of its agricultural inputs, Cuba pivoted toward agroecology, urban agriculture, and local food networks. The shift initially reduced total production. Over time, it improved food security by widening dietary diversity, lowering import dependence, and building local resilience.

By 2020, Cuba had shown that a country could reach food security levels comparable to high-income nations without the high-energy, high-input costs of industrial farming. A core mechanism was the Organopónicos system of intensive urban organic gardens that turned vacant city lots into productive hubs, supplying up to 90% of the fresh produce consumed in Havana. This model cut the food miles and packaging waste embedded in globalised supply chains, helping Cuba maintain a high Human Development Index (HDI) while also having one of the smallest per-capita environmental footprints in the world. In an era of climate volatility, the decentralised architecture became a case study for bioregionalism, showing that caloric self-sufficiency can be decoupled from fossil fuel dependency.

But that resilience has been tested hard since the 2020 milestone. The agro-ecological foundations remain a gold standard for sustainability, yet tightened trade sanctions, the post-pandemic economic slump, and currency inflation have produced a new era of food tightness. Researchers increasingly read the Cuban model less as a static success and more as a live lesson in the fragility of sovereignty. You can master low-impact farming techniques, and still have daily stability at the kitchen table hinge on the wider economic ecosystem, including access to machinery parts and global trade.

Agro-ecological transitions are one of the few places where the story isn’t simple yield loss dressed up as virtue. The evidence says ecological approaches can sit close to industrial productivity, and sometimes push past it, while doing other work at the same time. Lauren Ponisio and colleagues pulled together 115 studies and more than 1,000 observations comparing organic and conventional yields. On average, organic yields came in about 19.2% lower. That’s the headline number. The gap shrinks hard when you stop treating organic as a single practice and start looking at system design. Diversification via multi-cropping and crop rotations reduces the difference to as little as 8–9%.

And then you get the other ledger entries. Organic systems in that synthesis were associated with enhanced biodiversity, improved soil fertility, and greater resilience to climate extremes. Yield is one output.

Catherine Badgley and colleagues work is often cited because it tackles the question people actually care about. Can agro-ecological farming feed everyone, or is it a boutique project with good marketing? Organic agriculture could produce enough food to meet current global caloric needs. That claim is built on 293 yield ratios, although the yield story is not uniform. The analysis suggests organic methods, especially in developing countries, can match or even surpass conventional yields.

Feeding the world is not a yield-only problem. The paper leans on two other variables that sit outside the farm gate. Reduced food waste and more equitable food distribution are the levers that make the calories real. So yes, yields can be slightly lower in organic and agro-ecological systems. But the argument is that the system performs on more than one axis, and that the binding constraints are as much logistical and political as agronomic. That is what makes these approaches look less like an alternative and more like a viable path.

Food sovereignty is what you get when people stop treating food as a commodity stream and start treating it as a social system. It’s not branding or calories at all, for the people eating the food it is culture. The Slow Food movement’s Terra Madre network is a useful signal here. Over 5,000 food communities maintaining traditional varieties and practices is a living portfolio of nutrition, identity, and locally tested know-how.

Miguel Altieri and Victor Toledo push on the measurement problem that keeps tripping these debates. If you grade systems by single-crop yields, industrial models look clean and dominant. If you grade by total nutritional output per hectare, smallholder and agro-ecological systems often come out stronger because diversity is doing more work than the spreadsheet admits. The unit of success changes the story.

Kerala’s shift toward food sovereignty through community-supported agriculture and traditional crop diversity points to the same logic at the state scale. High food security levels in India, paired with ecological sustainability, is what performance looks like when you include resilience and local fit.

None of this means transitions are painless. Shifting away from industrial systems can create temporary food security disruptions if it’s done poorly or rushed because supply chains, incentives, and policy settings were built for the old machine. The change has to be managed, and it has to be supported.

Decentralised, ecologically based food systems can win on multiple dimensions. But the win depends on how you run the handover.

Food insecurity is a systems problem, so it punishes single-variable fixes. That’s precisely where mindful scepticism keeps you from mistaking a louder story for a truer one.

Feed the world by producing more works as a slogan. It also hides the deeper reality that we already produce enough food. The failure is in how we’ve organised the system of rules, flows, and incentives that reliably block equitable access.

What struck me most while researching food security for this essay and our Mindful Sceptic Guide to Food Security is how consistently the evidence supports premises. Each one holds up under scrutiny, which is both validating and sobering in light of our global predicament. The research reveals food insecurity as a perfect example of what happens when we mistake complex problems that require systemic transformation for complicated problems that can be solved with more resources and better management.

By treating food security as merely complicated, policymakers risk privileging short-term, supply-side solutions that reinforce industrial agriculture and deepen ecological degradation.

Such policy tweaks and a free-market approach might provide occasional fixes, even as they exacerbate inequality, weaken smallholder resilience, and increase the food system’s vulnerability to shocks. But we face a systemic challenge with food security.

Precarious plenty is what interconnectivity looks like when it’s live. Small disruptions don’t stay small. They move through the system, hit a feedback loop, and come back bigger.

A drought in India becomes a price shock in Bangladesh. A cyberattack on meat processors ripples through global supply chains. Financial speculation turns food from sustenance into a commodity. None of these are isolated events. They are couplings. That’s also why this problem is so difficult to hold in mind. Our cognitive architecture evolved to track immediate, local threats.

Global food systems are the opposite. They are abstract, distributed, and tightly linked. The danger arrives by cascade, not by approach.

We produce enough food, but fail to distribute it to everyone, waste a significant amount, and pay little attention to nutrition. Such a situation is fixable as a complicated problem if that were all there was to it—a solvable challenge with a bit of resource redistribution and political courage.

But the precarity is acute.

The system that generates all this food is dependent on fossil energy inputs and is degrading the soil, which reduces the resilience of production just as the weather gets more unpredictable and intense. In other words, we have a complex problem with numerous interconnected parts that involve feedback loops, emergent behaviours, and nonlinearity.

Recognising food security as a complex problem invites more adaptive, participatory, and resilient approaches, such as agroecology, local food sovereignty movements, and integrated land-use planning. These strategies embrace uncertainty, diversity, and co-evolution, which are hallmarks of systemic transformation rather than linear improvement.

Notes & Sources (for the curious)

Scale, calories, and hunger (the “paradox”)

• Global population level + growth rate — UN DESA World Population Prospects (2024); World Bank population data (2025)

• Calories available per person + hunger/food insecurity counts — FAO State of Food Security (SOFI) (2025 edition); FAO FAOSTAT Food Balances/SDG 2 indicators (2023)

• “Enough food, but…” distribution/access framing — Amartya Sen Poverty and Famines (1981); FAO SOFI (method sections, 2025 edition)

Production, waste, and what “availability” hides

• Global crop/meat production + ag value added — FAO FAOSTAT (2023); World Bank “Agriculture, forestry, and fishing, value added” (2024)

• Food loss/waste magnitude + definitions — UNEP Food Waste Index (2024); FAO food loss & waste framework / SOFA report on food loss & waste (2024)

Supply-chain brittleness and concentration

• Choke points and trade disruption (e.g., Suez/Ever Given) — UNCTAD maritime transport / choke points briefings (2021); Lloyd’s List / Suez Canal Authority summaries (2021)

• Corporate concentration in seeds/agrochemicals/grain trade — ETC Group or IPES-Food consolidation reports (2024); UNCTAD competition/agri-food market power reports (2025)

• Cyber risk to food processing (e.g., JBS incident) — US DOJ/FBI or CISA advisories/incident summaries (2021); company filings/earnings statements (2021)

Geopolitics and price volatility

• Ukraine war impacts on grain/oil exports + corridors/attacks — FAO “Food Outlook” / trade monitoring (2022–2026); UN/OCHA or World Bank Ukraine agriculture updates (latest)

• 2007–08 food crisis drivers (biofuels, trade restrictions, speculation—contested) — World Bank World Development Report 2008 (food/ag chapters); FAO/OECD price volatility syntheses (post-2008)

• Import dependence + vulnerability (MENA wheat; export bans like India 2022) — FAO trade statistics (2022); IFPRI Food Policy Reports / export restriction trackers (2022)

Climate, water stress, and nutrition quality

• Yield risk under climate change — IPCC AR6 WGII (2022, food/land chapters); IPCC SRCCL (2019)

• Groundwater depletion/ag regions (e.g., Central Valley subsidence) — USGS groundwater + subsidence publications (2018); California DWR SGMA/aquifer reports (2025)

• “Calories aren’t nutrition”: PoU limits, micronutrients, double burden — FAO PoU methodology notes (2024); WHO/UNICEF/World Bank Joint Child Malnutrition Estimates (2025); The Lancet double-burden series (2020)

Agroecology, sovereignty, and “system redesign”

• Organic/agroecology yield gaps + diversification narrowing — Ponisio et al. (2018); IPES-Food agroecology syntheses (2022)

• “Can organic feed the world?” (and what assumptions matter) — Badgley et al. (2007); FAO agroecology knowledge platform / syntheses (2025)

• Food sovereignty + smallholder performance framing — Altieri & Toledo (2011); HLPE (CFS) reports on food systems/inequality/agroecology (2019)

  ---

Primary Sources

Altieri, M. A., & Toledo, V. M. (2011). The agroecological revolution in Latin America: Rescuing nature, ensuring food sovereignty and empowering peasants. Agroecology and Sustainable Food Systems, 35(4), 587-612.

Badgley, C., Moghtader, J., Quintero, E., Zakem, E., Chappell, M. J., Avilés-Vázquez, K., ... & Perfecto, I. (2007). Organic agriculture and the global food supply. Renewable Agriculture and Food Systems, 22(2), 86-108.

Ponisio, L. C., M’Gonigle, L. K., Mace, K. C., Palomino, J., de Valpine, P., & Kremen, C. (2018). Diversification practices reduce organic to conventional yield gap. Nature Sustainability, 1(5), 229-235.

Sen, A. (1981). Poverty and famines: An essay on entitlement and deprivation. Oxford University Press.

A Systems Spine turns Insight Vault fragments into a coherent sequence. Each one starts with posture, passes through constraints and incentives, and ends with practical implications. The aim is legibility under pressure. Track ecology, energy, mass-balance, and incentives and the world stops looking so mysterious.

Conservation often talks as if there is a stable, correct version of nature that we can restore if we just try hard enough. That idea feels grounding, but it creates strategic mistakes because ecology is dynamic. It moves. Disturbance is normal. Extinction is not an anomaly but integral to nature.

When you hold a fantasy baseline of today, yesterday or pre-1788, every change reads as degradation, which pushes policy toward symbolic purity rather than functional outcomes.

This System Spine linking six Mindful Sceptic Insights offers a reframe of conservation to one closer to the way nature actually works.

Let’s start with the status quo.

Human appropriation now shapes most ecosystems, so effective conservation must work inside novel, human influenced ecologies rather than aiming to preserve pristine conditions.

Protection still matters, but the category error is thinking protection restores old dynamics by itself. Energy flows, species assemblages, and disturbance patterns have already been rewired by land use, invasive species, and climate. The opposed orthodoxy says expanding protected areas preserves a stable nature, but the system you are protecting is already in motion. It’s gone.

Treat change as the default state, not the exception.

Ecological systems are a moving target, so management that assumes a stable balance will miss the real dynamics that determine persistence and function.

Succession, fire regimes, flood cycles, and species interactions shift across seasons and decades, even without human pressure. Add modern drivers and the variance grows, which makes static targets brittle at best.

The orthodoxy treats nature as tending toward equilibrium, but many systems are defined by disturbance and recovery rather than steady state.

And if disturbance is normal, then disruption can sometimes be a conservation tool rather than a failure.

In disturbance-adapted ecosystems, periodic disruption can sustain biodiversity and function, so strict suppression of disturbance may degrade the system you are trying to protect.

Fire, grazing, storms, and episodic stressors can reset competitive hierarchies and maintain habitat mosaics. Removing disturbance often simplifies the landscape, accumulates fuel loads, and then produces larger, more destructive events later. The orthodoxy says hands-off preservation should hold a baseline, but in many places hands-off is actually disturbance-off, which is a different intervention altogether.

Instead, if we see ecosystems as dynamic, it is easy to acknowledge that loss and turnover are part of ecology, not a failure of policy.

Extinction is a normal feature of evolution, so conservation should prioritise maintaining viable systems and processes rather than treating every loss as equally preventable.

This is not permission for indifference nor denial that some preservation effort is essential. The point is that the goal cannot be zero change, and certainly not zero extinction.

The practical question is which extinctions are being accelerated by human drivers, and which functions are being removed from ecosystems in ways that reduce resilience. The orthodoxy implies preventing extinctions is inherently necessary and always feasible, but feasibility depends on drivers, scale, and trade-offs.

Once you drop the idea of stable outcomes, the obsession with a single historical snapshot becomes harder to defend.

Restoration targets that aim to recreate a specific historical ecology fail because ecosystems have moved on and the conditions that produced the old state cannot be reassembled.

Historical reference points can guide learning, but they are not a recipe. Climate, species pools, and disturbance regimes have changed, and so have the surrounding land uses that constrain recolonisation and connectivity. The orthodoxy says sufficient effort can return ecosystems to a past state, but effort cannot recreate vanished boundary conditions.

And if the past is not fully recoverable, conservation should emphasise the species and functions that keep systems reliable now.

Ecosystem reliability depends largely on abundant species that deliver everyday functions, so protecting common species can matter more than spotlighting rarity alone.

Rare species can be important, but common species often carry the bulk of pollination, decomposition, soil formation, and food web stability. When common species decline, the system’s operating capacity drops and recovery becomes harder, even if the rare species are held in refuges. The orthodoxy treats saving rare species as the main route to protection, but the functions are usually delivered by the ordinary and the widespread.

This brings us to the strategic shift… from preserving an imagined baseline to maintaining function through change.

Conclusion

Nature changes, disturbance often sustains it, and extinction is part of the background process even in healthy ecologies. Historical baselines still have value, but treating a particular snapshot as sacred produces mis-aimed effort and moralised disappointment.

The pragmatic move is to reframe success as functional reliability under shifting conditions. Ask what processes must keep running, what disturbances must be allowed, and which common species carry the load. Then design interventions that can adapt without pretending the past can be reinstalled.

Path dependence is the quiet driver here. Once human influence is pervasive, conservation becomes governance inside a moving system, not protection of a frozen one.

The hinge line is simple. If your target is a fantasy baseline, your strategy will be symbolic.

If your target is function, your strategy can work.

Coming soon

Curated Insights, deeper Explainers, monthly live catchups, and a moderated forum for thinking clearly about a humane population contraction—without coercion, denial, or collapse.

Western education was calibrated for a story of continuous growth and narrowing specialisation. Energy shocks, resource constraints, technological upheaval and sever geopolitical instability are breaking that calibration. More useful learning of systems thinking, emotional resilience, and ethical reasoning can be taught at any level, but getting there requires structural redesign. AI is commodifying technical knowledge fast, which makes education’s real job the human capacities machines find difficult, especially moral judgement and evaluation under uncertainty. The hard part is that reform requires abandoning a paradigm built for a world that no longer exists.

Back in 1987, I was a usurper.

Standing in front of the class I had taken as a student two years earlier, I was bright-eyed with a bushy tail of enthusiasm, and immediately became an advocate for radical student-centred learning. Without formal training, and before I finished my PhD, I was teaching ecology to undergraduates.

As a novice lecturer, I abandoned structured lessons for open-ended inquiry, breaking educational rules by asking students to design experiments from scratch with minimal context and relying only on their wits. I intuitively knew, and then demonstrated in the ten weeks that the students spent observing woodlice in various combinations of contrived conditions, that curiosity-driven learning creates a more profound understanding than traditional, structured teaching ever could. I was so excited that I described the experience in my first peer-reviewed scientific paper, published in the Journal of Biological Education.

Dangerfield J.M., Boar R.R., Montgomery P.S. (1987) Teaching ecology to undergraduates: a practical course using projects. Journal of Biological Education 21(4): 251-258

I went on to teach ecology and biodiversity at three other universities before ending my academic career prematurely to try my hand at ecological advice in the real world of commerce and consulting.

And that was a lot harder.

What my naive enthusiasm gave me in the ivory tower did little for the hard-nosed, conservative and siloed people who were expecting me to advise them on science. These good folk were not interested in radical, innovative, or self-centred ideas, especially because free thinking invariably impeded their career advancement and put their comfort at risk. They also balked at having to think for themselves.

Most only gave me the time of day because their company or government agency had an obligation to know some ecological detail or to gather some environmental data for compliance reporting. Naturally, I explained to them how such knowledge benefited the bottom line in terms of cost savings, risk reduction, and a competitive edge in a crowded market, but this barely registered.

Why was this? These environmental officers, sustainability managers, policy experts, and analysts were highly educated and intelligent individuals. Many had completed a modern education system that conventional wisdom told me was designed to prepare individuals to participate productively in society by gaining knowledge, developing skills, and cultivating responsible citizenship.

What had the education system done to them? Perhaps, not enough.

The thing is, and now more than ever, education isn’t mainly about transferring knowledge; it’s about building the human capacities we’ll need to navigate a world that’s getting less predictable.

And so we arrive at the first premise…

Modern education was built during a strange, temporary boom time. Fossil fuels let economies expand without hitting the usual brakes, technology kept patching over scarcity, and the environmental bill was treated as someone else’s problem. So we trained students for a world that could keep growing forever.

That logic sits inside the whole pipeline from school curricula and university programs to vocational training. The job is to produce roles that keep the growth machine fed through ever-increasing specialisation. Engineers build more infrastructure, finance manages ever-larger portfolios, marketing turns attention into demand. The specialised expert became the ideal.

Ironically, the marketers, finance people, engineers, and tech bros this system was built for are also the easiest to swap out. When complexity can be outsourced to LLMs, specialisation stops looking like security.

But initially, specialism wasn’t easy.

After thousands of years of accumulation, a great depth of knowledge had developed across many subjects. Plumbing to the bottom of them was difficult unless you learned a great deal about a little. You specialised at school, and when you reached higher education, you found academics divided into increasingly narrow disciplines, each with its vocabulary, methodologies, and perspectives that you had to learn just to join in. You went to universities organised into departments that rarely communicated with each other. And just like in school, college assessment systems rewarded depth of knowledge in particular subjects rather than understanding connections between fields.

I will spare you the pain I experienced when, later in my career, I briefly returned to academia as an adjunct professor at a major Australian university, where the worst aspects of all the above gave me, an outsider with weird ideas, the cold shoulder in the corridor.

Funnelling students into increasingly narrow fields of expertise, through standardised testing, rewards depth over breadth and predictability over adaptability, assuming a future in which technical mastery and career stability remain viable goals. This was the world of my parents, which emerged from the world wars into a period of rapid economic expansion in the West. It was also my world, and that’s why my attempt at student-centred learning was radical, even for a modern university with the motto Do Different.

How does specialisation that was useful for a time stack up today?

The accelerating pace of technological change, climate disruption, geopolitical instability, and economic volatility are reshaping the nature of work and life, not to mention the sheer volume of candidates for every role. Jobs are being automated, industries are being disrupted, and traditional career paths are fragmenting. The core skills most needed today, from critical thinking, adaptability, collaborative problem-solving, to emotional resilience, are not consistently emphasised in conventional schooling.

Likewise, systems thinking, which enables individuals to understand and respond to complex, interconnected challenges, remains a peripheral rather than central component of most curricula.

All this means that the premise generally holds. Preparation assumes a post-war boom carries on indefinitely.

Current educational systems are primarily designed around assumptions of continued economic growth, technological advancement, and occupational specialisation. Only this is not the future, which is already uncertain, complex, and rapidly shifting.

The assumption behind the premise is wrong. The future is not one of continuous growth and endless specialisation into narrow silos, which prompts the second premise…

It’s trite, but true. The future will be nothing like today or yesterday. Yet, I present it here as a premise because it is worth the confirmation that future generations will face novel challenges unprecedented in human history.

While humans have always adapted to change, declining EROI, the breaching of multiple planetary boundaries, technological disruption, and social transformations will be disruptive at best, and more likely catastrophic to the status quo. Young people will need new technical skills and enhanced capacities in systems thinking, adaptability, and psychological resilience, which our current educational models typically undervalue.

The reality is that 8 billion people are still increasing at 8,000+ per hour, and already face genuine biophysical constraints at a global scale. Unlike previous generations who could expand into untapped resources and energy, tomorrow’s adults will contend with diminishing conventional energy returns, accelerating climate instability, and biodiversity decline that combine to undermine ecosystem services we’ve taken for granted.

The food system is instructive.

Today’s students study agriculture primarily as a technological domain, learning to maximise yields through industrial methods. But tomorrow’s farmers will operate in a world where nitrogen fertiliser is increasingly expensive, phosphorus supplies are dwindling, climate patterns are destabilised, and pollinators are disappearing. The tractors will not run on diesel and the Haber-Bosch fertiliser production process will decline, forcing much rapid innovation in intensive agriculture, which will have to persist at least through a demographic transition. Understanding and addressing this situation requires fundamentally different skills, not just sustainable farming techniques, but also all the complex ecological relationships and resilience strategies necessary for highly variable conditions.

And it is happening already.

In 2025, Bolivia’s agricultural sector grappled with a severe diesel fuel crisis that threatened to undermine food security across the region. In Santa Cruz, the country’s agricultural heartland, farmers received only 700,000 litres of diesel daily—barely 21% of the 3.3 million litres needed for normal operations. This dramatic shortfall created kilometre-long queues at fuel stations, with farmers sometimes waiting days for limited supplies.

The 2025 Bolivian diesel crisis serves as a brutal energy reality check, marking the definitive end of the nation’s era of subsidised, cheap growth. What began as a paralysing diesel shortage caused by depleted foreign reserves and falling gas production, evolved by early 2026 into a structural cost-of-living crisis following the government’s decision to end long-standing fuel subsidies. While this shock therapy successfully restored fuel availability by allowing market prices to take hold, it replaced kilometre-long queues with massive inflation and razor-thin agricultural margins. Bolivia has essentially transitioned from a system defined by waiting in line to one defined by paying the true price, forcing its economy to finally reckon with the high cost of energy that it can no longer afford to externalise. And I suspect they didn’t teach any of this in school.

Challenges usually get back to energy, but there is also the rapid technological evolution restructuring how we work, communicate, and organise society.

When I began teaching at university, computers were dumb terminals connected to a mainframe. The first desktop word processors only arrived in the last year of my PhD. Today’s students not only carry supercomputers in their pockets that can access most of human knowledge, but they also come with an AI assistant that can do all the heavy lifting.

The traditional education approach views technology as merely a skill set to master, rather than a force reshaping cognition and social structures. Today’s five-year-olds will graduate into a world where artificial intelligence has transformed knowledge work, virtual and augmented reality have blurred physical and digital realms, and biotechnology has redefined our relationship with natural systems. A virtual world might be the only safe one.

It’s happened before, perspective has merit. People have always needed to communicate effectively, solve problems collectively, and adapt to changing circumstances. The Industrial Revolution dramatically transformed society, yet humans adjusted. We may overstate the uniqueness of current challenges.

Critical thinking, creativity, and social intelligence have always been valuable because the capacity to find meaning amid difficulty remains a fundamental human capability, regardless of the technological or environmental context. Yet most educational models implicitly assume a stable, predictable future in which knowledge accumulates linearly, and career paths follow predictable trajectories. Students are taught to master existing knowledge rather than navigate profound uncertainty.

Future-relevant education would foster capacities for psychological flexibility, comfort with ambiguity, and the ability to find purpose amid changing circumstances. These aren’t soft, nice-to-have skills, but essential foundations for functioning in a world of discontinuity.

Without spending days assessing the literature or naming every study, I will establish this premise…

When I wrote about my experience as a novice ecology lecturer for the Mindful Sceptic newsletter, a commenter put me onto the studio school model, an innovative educational approach that integrates academic learning with real-world work experiences through project-based learning.

Studio schools are deliberately small (typically around 300 students), emphasising personalised learning, strong relationships between teachers and students, and the integration of academic subjects with hands-on, real-world projects. Exactly the training for innovative problem-solving we are going to need. The curriculum combines core qualifications in English, maths, and science with applied learning and extended work placements that are central to the school experience rather than supplementary.

According to the latest available data for 2025, 27 Studio Schools operated in England. These schools had a combined capacity of approximately 8,100 students. However, enrolment figures indicate that they were operating at about 54% capacity. Given that there are around 10 million pupils in schools in England, students in Studio Schools represent approximately 0.05% of the total student population. They are training a tiny fraction of each cohort in the systems thinking needed.

Similarly, Montessori education, which emphasises self-directed learning and mixed-age classrooms, is primarily offered at the early years and primary levels in the UK. There were about 700 Montessori schools and nurseries nationwide in 2025, serving an estimated 30,590 children. Montessori students constitute a similarly tiny 0.3% of the student population.

So what about the premise?

It is mainly true. Educational reforms over the past several decades have been modest. Coding, climate science, and digital literacy classes might have entered schools, but without fundamentally altering how education is structured or delivered. What modernisation there is has been within existing institutional frameworks that emphasise standardised assessment, age-based progression, and subject silos. And while curricula evolve incrementally, the overarching structure often prioritises discrete knowledge acquisition over integrative, transdisciplinary thinking.

This is a critical limitation. We are not teaching kids to think.

But we could.

Research demonstrates that systems thinking is not only teachable but also deeply engaging for students from early primary school through to tertiary education. Project-based learning, inquiry-based science, and interdisciplinary thematic units have demonstrated that even young learners can grasp systems concepts, such as cause-and-effect chains, interdependence, and leverage points, especially when connected to real-world contexts like ecosystems, communities, or global challenges.

And if a pushy postgrad usurper can teach it in the 1980s, why not trained professionals in the 2020s?

Maybe it’s structural inertia, or it’s policy constraints, or it’s something more nefarious. Either way, education systems still default to linear instruction, content coverage, and individual performance metrics. And those defaults actively fight the complex, relational, often collaborative work that systems thinking requires.

A structural shift would mean changing more than the wallpaper. It would mean school organisation, teacher training, assessment strategies, curriculum integration and a host of other structural changes. The stuff that decides what gets taught, what gets rewarded, and what gets dropped when time runs out.

Until this level of reconstruction happens, most reform will keep arriving as add-ons. Well-intentioned, perhaps, but ultimately piecemeal.

But it is possible.

Finland, Singapore, EL Education offer three different contexts for a change in the educational structure towards systems thinking.

Finland does it by breaking the silo. Phenomenon-based learning starts with a real-world topic and has students examine it through multiple disciplinary lenses—science, humanities, arts—so the interdependencies are the point. Teachers have high autonomy and professional trust, which lets them adapt to the classroom in front of them. Assessment follows suit, leaning on formative feedback over high-stakes testing, so depth wins over memory.

Singapore approaches it through science and technology, with systems design thinking embedded in the national curriculum. The Applied Learning Programme (ALP) brings in interdisciplinary challenges of sustainability, robotics, and health to build problem framing, stakeholder analysis, iteration, and evaluation. Teacher development and partnerships with universities and industry help anchor the shift, connecting classroom learning to broader social and ecological systems.

EL Education in the US makes the project the unit of learning. Each project uses long, interdisciplinary expeditions on complex topics, often ending in public presentations or real-world products. The structure rewards curiosity, perspective-taking, and feedback loops, guided by ten design principles, including the primacy of self-discovery and the having of wonderful ideas. Those are systems thinking muscles, and also happen to be solid, mindful sceptic skills.

Schools in the EL network also adopt collaborative leadership models and invest heavily in teacher training to sustain structural alignment with their educational philosophy.

These innovations from around the world are far more ambitious and successful than my little woodlouse practical. The question isn’t whether systems thinking can be taught at all levels because the evidence confirms it can. The real question is whether we will transform educational structures that no longer serve a world of accelerating complexity.

What if modern schooling, even these reformed versions, systematically undercut the cognitive flexibility it claims to build?

In many documented hunter-gatherer societies, early childhood learning was all about autonomy and exploration. Ethnographic studies of the !Kung in Southern Africa, the Hadza in Tanzania, and various Indigenous Australian groups describe young children with wide latitude to play, mimic adults, and mix with peers without formal instruction. That kind of free-range environment let them develop cognitive, social, and environmental skills through immersion in community and landscape.

Then, somewhere between ages 6 and 8, many children started taking on more responsibility through tasks that echoed adult roles. Not in the structured way we think of modern apprenticeships, but through assisting older siblings or parents in gathering, hunting, tool-making, or caregiving. It was informal learning-by-doing but woven into the daily rhythms of life. And a key feature was instructional restraint. Adults didn’t typically give direct instruction; they modelled tasks and let children learn through observation and practice.

Whilst all this sounds like a romantic notion and not transferable to the modern day, it does tell us that we don’t have to be so dependent on institutional validation.

Our Western educational pipeline, from elementary school through high school, creates a dependency on institutional validation and external direction, precisely what you don’t want in a world requiring rapid adaptation.

So, what is the reimagining? What design of teaching will prepare youngsters to participate productively in society? What knowledge, skills, responsible citizenship, and resilience education will they need to cope with unprecedented change?

Perhaps the most meaningful reimagining of education centres on cultivating emotional resilience and ethical reasoning, but before we go there, there is the elephant to consider… Artificial Intelligence.

The accelerating capabilities of AI to absorb, synthesise, and deliver technical knowledge is the greatest challenge to traditional education for generations. Content is condensed on a voice command; you don’t need to remember it. From coding assistance to personalised tutoring in mathematics or science, AI tools are making technical knowledge more accessible and commodified. Education must go beyond training students on what to know and focus instead on how to think, relate, and act. In short, how to evaluate. These skills are more challenging to automate and are even more critical for human flourishing.

AI is excellent at instruction-as-delivery, like explaining concepts in ten different ways, giving unlimited practice, and providing instant feedback without embarrassment or delay. It can compress whole technical domains into something a motivated student can work through quickly. But it is unreliable at the parts of education that are not technical, such as resolving value conflicts, earning epistemic trust, and navigating messy social coordination where legitimacy and accountability matter. It can generate reasons, but it can’t authorise them. It can propose answers, but it can’t carry responsibility for what those answers do to a real community. So AI is a really handy tutor. Just don’t outsource judgement.

Emotional resilience matters here, too.

It’s what lets learners stay functional in the face of uncertainty, failure, and complexity. And ethical reasoning is the partner skill. Ambiguous, value-laden situations show up all the time in a world increasingly shaped by thinking algorithms and need considered decisions.

Traditionally, education runs top-down, as older generations pass wisdom and skills to younger ones. But in periods of rapid change, that flow isn’t one-way. Younger generations often carry real insight, especially around technology, digital culture, and emerging worldviews. A reciprocal model of learning builds mutual respect, speeds adaptation, and strengthens social cohesion. Older generations contribute historical perspective, contextual wisdom, and moral frameworks; younger ones bring agility, novel thinking, and intuitive familiarity with disruptive technologies.

As AI reshapes work and knowledge, schools and universities that prioritise dialogue, empathy, and cross-generational exchange are better positioned to cultivate systems-aware, emotionally grounded citizens. The goal becomes less about outpacing machines and more about doubling down on the human strengths machines can’t replicate.

The Wisdom Exchange Project (UK/US) is one example. School-aged students and older adults (often retirees) collaborate on shared inquiries into life experience, ethics, and community history. Sessions include storytelling, mutual interviews, and collaborative problem-solving around ethical dilemmas or contemporary challenges. The emphasis isn’t just elders teaching youth; it’s mutual enrichment as students offer digital skills or emerging cultural insights in return. Emotional resilience develops through reflective dialogue and real-world role modelling, while ethical reasoning deepens through multigenerational perspectives on values, justice, and responsibility.

Operating in several Australian states, Generation Connect is an intergenerational program that pairs high school students with elderly citizens in aged care facilities. Originally designed to reduce loneliness, it has evolved into a reciprocal learning platform. Students often train older adults in digital literacy, while elders share life experiences and coping strategies. Joint projects, such as digital biographies or oral history archives, help students build empathy, patience, and a more profound understanding of the ethical issues surrounding ageing, memory, and dignity. Teachers report measurable improvements in students’ emotional awareness and communication skills. The ABC documentary series Old People’s Home for 4-Year-Olds, and Old People's Home For Teenagers, brought the idea to a broader audience, bringing together elderly residents of retirement communities with preschool-aged children to explore the transformative power of intergenerational relationships.

The Center for Human Technology Education Initiatives (Global/US-led) backs school-based programs that teach Digital Wisdom by combining ethics, media literacy, and emotional intelligence in the age of AI. Their curriculum includes modules on moral decision-making in tech design, digital empathy, and understanding feedback loops in social platforms. Some pilot programs add intergenerational roundtables, bringing students and adults together to reflect on the moral implications of technology use. That blend of systems thinking, and ethical inquiry shows how different generations can co-create norms for emerging challenges, reinforcing emotional resilience and shared responsibility.

Traditional education assumes knowledge moves one way, from elders to youth. ‘Teacher knows best’ made sense when change was slow and experience reliably predicted the next set of challenges. Why not learn from the wise elders? Older generations do carry hard-won wisdom about enduring human problems, historical patterns, and ethical frameworks shaped through lived experience.

But once core literacy, numeracy, and communication skills are absorbed, the advantage can flip in periods of rapid change, when the future isn’t predictable from the past. Younger generations often move faster through emerging technological landscapes, social reorganisations, and shifting environmental conditions than their elders. Here, Gran, your phone does this now.

Transformation thrives in the spaces where generations connect and wisdom flows in multiple directions. When we create environments where elders and youth solve authentic problems, whether nurturing community gardens or navigating digital landscapes, we tap into a natural exchange of perspectives that enriches everyone involved.

An intergenerational approach is compelling.

What all this boils down to is this. Education’s most profound purpose isn’t information transfer but cultivating the reflective capacity to engage meaningfully with an uncertain future.

This isn’t simply adding emotional skills to existing curricula or creating occasional intergenerational exchanges. It’s reconceiving education’s fundamental purpose and process, shifting from knowledge acquisition to capacity development, from hierarchical transmission to ecological exchange, and from predetermined outcomes to emergent understanding.

And how to do this?

The Mindful Sceptic framework, which combines curiosity, critical thinking, and awareness, is a good starting point because it strikes a balance between unflinching realism about current challenges and openness to creative possibilities. It acknowledges the evolutionary drivers that shape human behaviour and honours both traditional wisdom and emerging knowledge rather than privileging either. Such is a sceptic.

Most importantly, a mindful sceptic recognises that resilience emerges from relationships rather than isolation, diversity rather than uniformity, and adaptation rather than rigid preservation in complex living systems—whether ecosystems, social systems, or learning communities.

What I know is that, back in the 1980s, my undergraduates didn’t seem to mind that I was a usurper and gave me strong positive responses in student appraisal. And I kept it up throughout my career, including an equally audacious biodiversity class. Macquarie University honoured me with an Outstanding Teacher Award, yet I still have no formal teacher training.

Dangerfield, J. M., & Pik, A. J. (1999). The educational value of an all taxa biodiversity inventory. Journal of Biological Education, 33(2), 76-83.

Many are wiser, more experienced than I in pedagogy and may not like this last, audacious premise.

Education is how a society trains itself. It’s the primary mechanism for preparing people to participate in civic life, economic systems, and collective decision-making. The problem is that the current model is industrial-era by design, optimised for economic expansion, specialisation, and predictable career pathways. It is drifting out of alignment with the world it’s supposed to serve, even the one of command and control.

What we need instead is education that builds the human capacities machines can’t easily replicate: evaluation, systems thinking, moral judgment, collective reasoning, emotional resilience, and the ability to navigate uncertainty.

If education systems don’t make this deep structural shift, then inequality widens as elites adapt and others get left behind. Trust in institutions erodes. Politics destabilises as disillusioned citizens lose faith in the future. And our ability to solve shared global challenges, like climate change and ethical AI governance, starts to break down.

Those aren’t just educational outcomes. They’re existential because they hit the social, environmental, and technological systems human survival depends on.

Education is foundational. It’s intensely personal, and yet, in aggregate, it defines our collective capacity to respond wisely and cooperatively to major existential risks from nuclear war to climate collapse to runaway AI.

A failure to reform it may not directly endanger survival in the short term. But it does something almost as dangerous. It weakens our capacity for coordinated, ethical, resilient adaptation in an uncertain future.

The conventional narrative of education is that we prepare young people for the future by transmitting knowledge from the past. This story feels quaint in a world where AI systems can rapidly access and synthesise vast knowledge repositories, environmental disruption creates unprecedented challenges, and social systems are undergoing rapid reorganisation.

Simply knowing more isn’t enough.

Knowing what happened yesterday is not enough either. Every genuinely transformative period in human history required young people to reject elder wisdom en masse. The Aboriginal Australians had 65,000 years of accumulated wisdom, but it couldn’t prepare them for European contact. Climate disruption and AI represent similar discontinuities. What if honouring traditional wisdom and the new tradition of the market may be precisely the wrong approach?

What if Finland’s educational success is correlated with ethnic homogeneity and resource abundance, rather than pedagogical innovation? When elites promote 21st-century skills, they’re ensuring their children learn meta-cognitive advantages while working-class kids get vocational training dressed up as systems thinking.

Similarly, what if, in periods of genuine discontinuity, older generations become net liabilities rather than wisdom sources, and attempts at intergenerational exchange hinder necessary adaptation?

These are uncomfortable thoughts.

As mindful sceptics, we can acknowledge both the profound challenges of educational transformation and the tangible evidence that such transformation is possible. We can recognise that while perfect solutions don’t exist, meaningful progress does. And then, we pause, take a breath and ask the awkward questions.

The most significant risk isn’t that we’ll attempt transformation and fall short, but that we’ll cling to educational models designed for a world that no longer exists. Even the trendy ones we currently think are an improvement on cramming content.

When I ditched the script and let my ecology class run wild and loose with the scientific method, I knew I was doing something different. Now we need something different again.

Maybe the reimagining of education we have to hand is a category error that assumes predictability that doesn’t exist. The novel educational models mentioned in this essay might be utopian fantasies existing at the margins for the moment, even if they have a track record of benefiting students in diverse contexts. But they show it can be done.

Complex systems are fundamentally unpredictable. No educational program in 1900 could have prepared students for 1950, let alone 2000. Instead of trying to anticipate specific challenges, we should optimise for the capacity to improvise novel solutions using whatever’s available. This means less structured learning, not more.

Preparing young people for a world of limits and possibilities might just mean letting them run with it.

Notes & Sources (for the curious)

Limits, energy, and biophysical disruption

• Planetary boundaries “how many crossed” (and why it matters) — Stockholm Resilience Centre planetary boundaries update (2023–2025); Science Advances planetary boundaries update (Richardson et al., 2023).

• Population scale and trajectory (8+ billion, peak timing) — UN DESA World Population Prospects 2024

• Net-energy / EROI framing (why declining returns constrain surplus) — UK DFID/SUNY-ESF report on global EROI (2013); Heun & de Wit (2012) on EROI and implications.

Food-system fragility (fertiliser, nutrients, pollination, climate)

• Climate impacts on food production (synthesis) — IPCC AR6 WGII (2022), food & water fact sheet / Chapter 5.

• Pollinator dependence + decline risks (global assessment) — IPBES Pollinators/Pollination/Food assessment (2016), SPM.

• Phosphate rock supply and “no substitutes” for phosphorus — USGS Mineral Commodity Summaries 2025: Phosphate Rock.

Case study: energy shocks hitting real economies

• Bolivia’s 2025 diesel shortage affecting agriculture (Santa Cruz figures, queues) — Reuters (13 Mar 2025); ReliefWeb situation note (18 Mar 2025).

Structural alternatives: teaching for complexity, not coverage

• Studio Schools / non-standard models in England (official counts/listing over time) — UK Department for Education monthly dataset of open academies/free schools/studio schools/UTCs (updated Jan 2026; includes 2025 editions).

• Finland’s curriculum basis for multidisciplinary/phenomenon-based learning — Finnish National Agency for Education core curriculum timeline (2014–2019 rollout).

• Singapore’s Applied Learning Programme (real-world application / interdisciplinary learning) — Singapore Ministry of Education ALP overview (updated Dec 2025).

• Evidence that “systems thinking can be taught” (anchor synthesis) — OECD Rethinking education in the context of climate change (2024) (competencies/curriculum); Elsawah et al. “Teaching systems thinking…” (2022) as a higher-ed example.

AI changes what education is “for”

• Why GenAI pushes education toward judgement/ethics/assessment redesign — UNESCO Guidance for generative AI in education and research (Sept 2023; updated Jan 2026).

Intergenerational learning (reciprocal models)

• What intergenerational exchange programs tend to do for participants (overview evidence) — Webster et al. systematic review of intergenerational programs (2024); Pillemer et al. wisdom-sharing intervention paper (2022).

Primary Sources

Elsawah, S., Ho, A. T. L., & Ryan, M. J. (2022). Teaching systems thinking in higher education. INFORMS Transactions on Education, 22(2), 66–102.

Heun, M. K., & de Wit, M. (2012). Energy return on (energy) invested (EROI), oil prices, and energy transitions. Energy Policy, 40, 147–158.

Pillemer, K., Nolte, J., Schultz, L., Yau, H., Henderson, C. R., Jr., Cope, M. T., & Baschiera, B. (2022). The benefits of intergenerational wisdom-sharing: A randomized controlled study. International Journal of Environmental Research and Public Health, 19(7), 4010.

Richardson, K., Steffen, W., Lucht, W., Bendtsen, J., Cornell, S. E., Donges, J. F., Drüke, M., Fetzer, I., Bala, G., von Bloh, W., Feulner, G., Fiedler, S., Gerten, D., Gleeson, T., Hofmann, M., Huiskamp, W., Kummu, M., Mohan, C., Nogués-Bravo, D., … Rockström, J. (2023). Earth beyond six of nine planetary boundaries. Science Advances, 9(37), eadh2458.

Webster, M., Norwood, K., Waterworth, J., & Leavey, G. (2024). Effectiveness of intergenerational exchange programs between adolescents and older adults: A systematic review. Journal of Intergenerational Relationships.

Inside, the day’s work has the rhythm of a factory shift, not a farm morning. Pallets are shunted onto the truck by forklifts, neat cubes of cardboard packed tightly with shrink-wrapped pork.

The driver checks his tailgate, nods to the forklift operator unrecognisable in his thick jacket and is out on the road, ready to make a supermarket shelf look calm and abundant.

The Hard Number

Modern pork consumption runs as a continuous industrial pipeline, governed by energy, feed, land, and disease risk. It is vast, efficient and processes over 1.5 billion pigs every year.

Pork is the most widely eaten terrestrial animal meat in the world, accounting for about 36% of global meat intake. If you were to take every person on Earth and divide the total pork produced equally, the annual average consumption is roughly 42 grams per day, about the size of a single standard breakfast sausage link or a few thin slices of deli ham.

Pork consumption is stabilising or slightly declining in high-income Western countries as diets shift. But it continues to grow in developing nations, particularly in Southeast Asia.

As breeding gets more efficient and slaughter weights creep up, so even if the number of animals stays steady, the total volume of meat produced still rises slightly.

There can be debate nuancing the numbers but even if every one of these inputs is off by 20 percent, the order of magnitude remains the point. The world is not eating pork. It is operating a daily industrial drawdown measured in thousands of barn-equivalents.

Framing the hard number

In modern commercial agriculture, most pigs are raised in Concentrated Animal Feeding Operations (CAFOs), built for high-density efficiency.

In a typical finishing operation, pigs grow to market weight in sheds (barns) with 1,000 to 4,400 pigs in a single large shed. Inside, they are usually kept in groups of 25 to 50 per pen, and each pig is typically allocated about 7 to 8 square feet of space. That is what efficiency looks like on the ground.

If we assume 3,000 pigs per shed, then the number required to supply the world’s daily pork consumption is 1,300 sheds processed every 24 hours. Every minute, nearly one full shed is slaughtered.

Line up those 1,300 sheds end to end. Assume a standard barn length of roughly 61 m (200 feet). Every day, the world consumes the contents of a line of sheds over 79 km long (49 miles).

Run that for a month and the line stretches from Paris to Moscow, or Manchester to Athens, roughly 2,450 km.

Now add the time lag.

Pigs typically take about 180 days to reach market weight. So for every 1 shed slaughtered today, there must be roughly 180 other sheds already in the production cycle at different stages of growth, just to hold the daily output steady.

That’s what supply means here. To support a global slaughter of 4 million pigs from 1,300 sheds per day, there are roughly 234,000 sheds of 3,000 pigs each active worldwide at any given moment.

Line that many sheds end to end and they stretch 14,274 km. A third of the way around the globe, just shy of the distance between London and Sydney, Australia.

Behind the hard number

A modern pork production system is not a set of independent farms. It is a timed flow from breeding, farrowing, finishing, transport, slaughter, cold chain, and retail. Each stage is coupled to the next. If one stage slows, animals back up, costs rise, and someone pushes the system to restore flow.

That flow is governed by a few hard constraints.

First there is some basic biology and thermodynamics. Pigs turn feed into flesh with losses as heat, movement, and waste. You cannot negotiate those losses away.

Most feed is grown, fertilised, harvested, milled, and transported using high energy inputs. If the energy subsidy changes, the system’s shape changes.

There is a footprint of production with sheds, lagoons, roads, abattoirs, and cropland are all physical. Throughput requires footprint.

Put many animals with near identical genetics together at high densities and disease risk rises dramatically. Biosecurity becomes a real cost of concentration.

The Invisible System Behind the Visible Story

The popular and true story is that pigs are an efficient protein source for people. We should be eating them for a healthy diet.

So we grow pigs commercially. Modern finishing sheds are controlled environments that reduce unit cost by concentrating animals and standardising time, then defend that concentration with infrastructure and protocols. Markets respond to demand that grows as people can access food they enjoy. Consumers choose when they can.

The invisible system is messier.

A concentrated pig pipeline runs on at least four upstream dependencies that rarely appear on a label.

Feed is the true substrate. A market-weight pig eats approximately 3 kg of feed per day. When you multiply that by the 4 million pigs slaughtered daily, it means that roughly 12,000 metric tonnes of feed no longer required to sustain those specific animals for that day. Pork is a way of eating corn and soy indirectly, plus the fuel and fertiliser that made them cheap enough.

Waste is a co-product, not an accident. High density means waste is central, not peripheral and amounts to 23,500 metric tonnes of manure for the daily global flow in 2025. Whether the exact number is right, the underlying reality is stable. Concentration converts dispersed nutrients into a disposal problem that must be managed with land, storage, and regulation.

Biosecurity is the cost of concentration. Hygiene protocols are essential given the speed at which a virus can move through a shed. This is the hidden tax of scaling. You get lower unit costs, then you buy back some safety with surveillance, hygiene, and restricted movement. When that defence fails, consequences are not local. They propagate through the pipeline.

Energy is the silent enabler. Industrial pork is an energy story wearing a protein costume. Feed production, barn climate control, transport, refrigeration, processing. The whole chain is a conversion machine powered by cheap energy. If you remove or constrain that subsidy, the pipeline does not politely shrink. It breaks in specific places first.

This is the missing paragraph in most discussions.

The system is not how we farm pigs. It is how we maintain high daily throughput without acknowledging the upstream energy and nutrient bills.

The Deeper Pattern

There is a recurring institutional pattern here for narratives that preserve innocence at scale.

For consumers, it is comforting to believe the system is just an aggregation of personal choices. For industry, it is profitable to frame scale as inevitability and efficiency as virtue. For policymakers, it is safer to regulate around the edges than to name the dependence on cheap inputs and the fragility created by concentration.

Meanwhile, metrics emphasise what can be counted cleanly at the farm gate while externalities are pushed into the ledgers for waterways, rural air quality, antimicrobial risk, or taxpayer-funded oversight.

And because the pipeline mostly works, the story persists. A stable supermarket shelf and spicy pork from the street vendor is persuasive evidence, even when it is purchased by upstream depletion or hidden risk.

Back to the front

The truck driver and the forklift operator at the loading bay do not care what story you tell yourself about dinner. They care about schedules, weight, refrigeration, and the next slot in the queue; what it takes to do their job.

If you want to think clearly about food, start the day with them. Ignore the label, go live with the pipeline that makes the label possible.

Being a Mindful Sceptic

A mindful sceptic uses curiosity and critical thinking to rigorously question ideas and demand evidence, while being aware of what matters, when it matters, and how to avoid the trap of cynicism.

So what do we do with the hard number of 4 million pigs are slaughtered worldwide each day?

• Convert consumption into infrastructure. When you hear millions per day, don’t leave it as an abstract. Translate it into barns, abattoirs, trucks, and standing inventory. If that translation feels obscene, treat it as a clue, not a conclusion.

• Track the constraint, not the slogan. Ask what is actually limiting: feed, energy, land, disease, labour, regulation. Better practices that ignore these limiting factors are public relations, not system design.

• Interrogate orphan numbers. Any stat without unit, year, geography, denominator, and boundary is persuasion, not information. Tag it, downgrade it, and keep reasoning anyway.

• Look for second-order effects. If you improve efficiency, what expands? If you tighten rules, what shifts offshore? If you reduce one harm, what does a new bottleneck appear?

• Ask what must stay true for the story to hold. Cheap feed, stable energy, manageable disease, and social permission. If any of those wobble, the system doesn’t politely adjust. Its shape changes.

Even mindful sceptics will have trouble keeping normative, value laden thoughts out of a topic like this one. So here are a few extra pointers to avoid lying to ourselves

• Improve measurement hygiene before moral positioning. Demand that major claims about sustainable pork specify unit, year, geography, denominator, and system boundary. Without that, progress claims are mostly rhetorical.

• Treat waste and nutrients as system-level design constraints. Any practice change that doesn’t address nutrient leakage, storage, and land application is incomplete, even if it improves animal welfare inside the barn.

• Stress-test the pipeline for fragility. Ask where the single points of failure sit: abattoir concentration, feed supply disruption, disease outbreaks. Redundancy costs money. Decide who pays.

• Be honest about trade-offs. Lower density may reduce disease spread but it increases land and infrastructure per unit. Higher welfare may raise costs and shift consumption patterns. Those shifts can be desirable, but they are not free.

• Consider demand-side realism. If consumption reduces, do it in ways that don’t simply displace harm elsewhere or replace pork with other high-impact substitutes.

Mindful Momentum

This week, do a Protein Ledger Check on one ordinary meal.

Write a small table with these fields:

• Protein source

• Claimed virtue (cheap, local, humane, sustainable)

• Unit, year, geography, denominator, boundary for any supporting stat you believe

• Upstream inputs you can name in 60 seconds (feed, energy, fertiliser, transport, waste)

• One failure mode (disease, drought, price shock, regulation, social licence)

If you cannot fill the measurement fields, you have learned something useful. Your belief is narrative-shaped, not evidence-shaped.

Key Points

• It’s a pipeline, not a product. The mechanism is a continuous, timed flow from feed → barn → abattoir → cold chain, with throughput as the organising principle.

• Scale becomes visible when you translate flow into infrastructure. 4 million pigs slaughtered per day globally and 1.4 billion per year in 2025. On a 3,000-pig shed assumption, that’s 1,300 shed equivalents per day.

• The real argument lives in constraints and measurement. The binding limits sit upstream in feed, energy, land footprint, waste management, and pathogen pressure while institutional theatre persists because a stable shelf sells and “efficiency” is rewarded even when it increases fragility. The practical move isn’t purity; it’s measurement hygiene plus constraint-aware trade-offs.

The fossil-fuelled expansion that powered unprecedented economic and population growth is waning, revealing the zero-sum dynamics temporarily masked by abundant energy and technological innovation. Climate destabilisation, soil degradation, and biodiversity collapse aren’t separate crises but interconnected symptoms of a civilisation exceeding planetary boundaries. As these constraints tighten, the question isn’t whether we’ll play a zero-sum game but how. Through historical examples and potential models for equitable distribution, it is time we examined how different approaches to resource allocation might function when increasing the size of the economic pie is no longer possible.

I live in the Blue Mountains west of Sydney, Australia in the federal electorate of Macquarie, named in honour of Major-General Lachlan Macquarie, who was Governor of the Colony of New South Wales for 11 years from 1810. At the time of writing, around 100,000 voters live in the electorate, and we all went to the polling booths on 3 May 2025, as required by the compulsory voting system in Australia, to cast a vote for our preferred candidate.

It turned out to be a historic event. The Labor Party was returned to government in a landslide victory, massively repudiating the populist nonsense that had been trying hard to take over Australian politics.

The Australian parliamentary system is tightly constrained in that there are a fixed number of seats in each legislative body. This always means a gain in representation for one party or group means a corresponding loss for another. All elections in single-member districts are like this. One candidate’s gain in votes and a seat in the parliament or assembly directly subtracts from the chances of others, and there’s no possibility for mutual gain. This structural setup encourages zero-sum thinking in political competition, often intensifying partisanship and conflict over influence.

I win, you lose generates more vitriol than debate.

I can’t discuss your position in case it is perceived as a weakness on my part. And you likewise. If we both recognise that the subject requires compromise for the mutual benefit of constituents, there is no apparent benefit to my moving forward. So I either ignore the subject and throw random piles of manure at you or immediately change the topic to something I believe gives me a better chance of winning.

Ah, the joy of a zero-sum game.

Politics is one way that humans organise themselves around a social contract. We consent, either explicitly or implicitly, to surrender some personal freedoms in exchange for the protection and order provided by a governing authority. Without government, as philosopher Thomas Hobbes described it in the 1600s, life would be chaotic and insecure in the state of nature. To escape this condition, individuals collectively agree to establish rules and a central authority to enforce them, thereby gaining security and predictability.

A century later, John Locke viewed the social contract as an agreement to protect natural rights of life, liberty, and property, arguing that governments derive legitimacy from the consent of the governed and must be held accountable to the people. Then in the 1700s, Jean-Jacques Rousseau, emphasised the general will and collective sovereignty, suggesting that legitimate political authority arises not from rulers imposing order but from citizens actively shaping the laws they follow.

All this means that there has been citizen agency in politics for a long time. We have governments because we permit them to exist based on shifting sets of promises, loosely the social contract.

In a modern democracy, the social contract is the deal we all live under. You give up some freedom, and you get the benefits of organised society, including security, justice, and prosperity. That bargain has teeth, which is why we accept laws that limit how any one person can exploit land, water, air, or biodiversity.

The mechanism is simple. Unchecked individual use can degrade the shared asset and leave everyone worse off. That is why you end up with rules on water extraction or carbon emissions. It is a collective response to a predictable mode of failure.

Governments, as agents of that contract, are given the authority to allocate and manage resources. They set limits, issue permits, enforce environmental protections, and decide how to trade off economic development against ecological sustainability. In the ideal case, those decisions are shaped by public participation and reflect what Rousseau called the general will, so resource use tracks broadly held values and long-term interests rather than short-term individual gain. That is what public interest is supposed to mean.

When the contract is perceived as broken, either through corruption, inequality, or repression, it can lead to civil unrest or calls for reform.

Legitimacy frays when resource decisions start to look like a rigged bargain. When outcomes feel like environmental degradation, corporate exploitation, or a state that cannot, or will not, address climate change, the public stops seeing trade-offs and starts seeing favouritism. Legitimacy can fail altogether if people perceive too much short-term individual gain for a privileged few.

That is when citizens push back. They ask for transparency, for a distribution that feels fair, and for environmental stewardship with real teeth. A lot of the tension in the U.S. sits right there, in whether the system still serves the many.

And this is the uncomfortable part. The social contract is not a static document. It is renegotiated in real time as societies argue over justice, responsibility, and the common good while drawing down finite, interdependent resources.

So, what happens in resource allocation when it is all or nothing?

Zero-sum resource scenarios, where one individual or group’s gain inevitably means another individual or group’s loss, are common in the raw state of nature. In a closed environment, there is a finite amount of solar energy and nitrogen. While different species can cooperate to use those resources efficiently, they cannot create more energy out of thin air. In that macro sense, for one population to explode in size, another must eventually contract, or the environment will degrade. You might recognise this as the zero-sum ceiling, called Carrying Capacity (K).

In humans, who think themselves beyond normal laws, the social contract exists precisely to transform these high-conflict, zero-sum dynamics into regulated, negotiated arrangements that can foster social stability and equity. Instead of leaving resource outcomes to power struggles or pure competition, societies use the social contract to justify the institutions of laws, policies, and enforcement mechanisms that coordinate and constrain behaviour for shared benefit. This can include public ownership, redistribution mechanisms, environmental regulation, or property rights systems.

I might own the land, but it doesn’t mean I can cut down all the trees or pollute the river at the bottom of the paddock.

Importantly, the social contract doesn’t assume every resource decision is a knife fight. It’s the opposite. It’s the framework that lets societies turn cooperation, innovation, and stewardship into positive-sum outcomes.

Take a river. In a functioning system, you can manage it to preserve ecosystems, supply drinking water, support agriculture, and respect Indigenous rights. That package deal is far less likely when everyone is sprinting for first access.

The same logic scales. Through agreements like the Paris Climate Accord, nations can shift away from a destructive scramble for carbon-based development and towards coordinated emissions reduction and renewable energy innovation. The point is not moral virtue. It’s that collaboration can expand the set of outcomes that work for everyone.

Nonetheless, zero-sum thinking hangs around, especially when resources are tight or when the benefits and burdens land unevenly. And here, the social contract brings transparent negotiation, inclusive governance, and rules that can adapt as conditions change. Without those, legitimacy drains away because people can’t see the logic or trust the trade-offs.

So yes, the social contract may begin in conflict over finite goods. But its ambition is to coordinate and use social agreement to stop every decision devolving into a scramble.

What all this means is that there is a natural conflict between those who like the zero-sum of winners and losers because they fancy themselves as perpetual winners and the social contract that, even though it can and does create zero-sum scenarios, is an efficient way to constrain such behaviour and increase the chance of mutual benefit. Crudely, this is the right and left of Western politics.

But what if the social contract also masks the inevitable conflicts over resource distribution and allocation? Here’s looking at you, imperialism.

And, belatedly, here is the first premise for rethinking equity…

The Industrial Revolution ran on fossil energy, and it changed the growth curve. Mechanisation and technological innovation turned energy into throughput, and throughput into sustained economic and population growth. For many societies, especially in the Global North, that translated into more goods, more services, and rising living standards.

But the dividends were never evenly shared. Resource endowments stayed unequal across regions, and the benefits of industrialisation flowed disproportionately to those with political power, access to capital, and control over production infrastructure. That is how you get growth on paper alongside entrenched advantage in practice.

Developing regions were often pulled into the system as raw-material suppliers on exploitative terms, and those terms became structure. Global trade scaled up, but the inequality was baked in.

Pandore is a Belgian political TV thriller that delves into the complexities of justice, power, and personal integrity, following a judge whose investigation into corruption uncovers unsettling truths about her own family. Many scenes occur in the buildings and public spaces of Brussels, resplendent with its 19th-century architecture, notably the Palais de Justice, commissioned by King Leopold II and completed in 1883 imposing neoclassical architecture, characterised by a colossal dome, grand staircases, vast halls, and classical columns. The building was designed to convey the power and modernity of the Belgian state.

It certainly is grand. It was paid for with ivory and rubber extracted from what is now the Democratic Republic of the Congo (DRC), a land of 2.34 million square kilometres (905,000 sq miles) in Central Africa, roughly 77 times larger than Belgium. Extraction quotas were brutally enforced by Leopold’s private army, the Force Publique.

But I digress.

Periods of high economic growth, however funded, have historically acted as a kind of economic analgesic, dulling public awareness of underlying distributional injustices. The sheer expansion of wealth allowed many conflicts over access and equity to be postponed, externalised, or absorbed.

This has often occurred through increasing debt, exploiting natural resources, or relying on geopolitical dominance. For example, post-war growth in Western nations in the 20th century supported welfare state expansion without fully confronting wealth inequality, environmental costs, or the extractive foundations of that growth in formerly colonised regions.

The masking function of growth has weakened over time. Environmental degradation, climate change, and social unrest have brought renewed attention to the sustainability and inequity of historical resource allocation and use. The global economy’s reliance on continuous growth is increasingly scrutinised, especially as finite resource limits and planetary boundaries challenge the assumption that growth can indefinitely substitute for equity. Trickle down has had its day.

The premise highlights the central tension now facing the social contract. Can future prosperity be decoupled from both ecological harm and entrenched inequality?

Presumably, it cannot be under the existing political systems in the Global North, which assume both I win, you lose and that growth can continue indefinitely.

Hence…

In a positive-sum environment, real or imagined, where economic growth expands the pool of available resources, political systems often function through compromises that distribute gains without zeroing out others’ shares. This allows for coalitions, bargaining, and policies that simultaneously placate, to a degree, multiple interests.

However, when growth slows or environmental limits are reached, societies shift toward zero-sum dynamics where one group’s gain is perceived as another’s loss. This has profound implications for political stability and institutional trust, as the conciliatory politics of expansion give way to distributive struggles marked by scarcity, resentment, and protectionism. Arguably, this is precisely the scene played out in the second term of President Trump.

Zero-sum stories are political jet fuel. They give populist, nationalist, and authoritarian actors an easy story that politics is a survival contest over jobs, land, water, energy and someone is coming to take yours.

Once that frame holds, narratives tighten. Appeals to ethnic, national, or class identity become the justification for exclusion and unequal claims. The argument stops being about growing the pie and becomes a fight over who deserves which slice, with old grievances revived on cue and incumbent elites quietly protected.

You can see the pattern in today’s stress points. Climate-related migration, access to arable land, and control over carbon budgets all trigger the same reflex to treat cooperation as weakness and compromise as loss. Under that psychology, international coordination doesn’t fail because it is impossible. It fails because it is politically costly to admit the game isn’t zero-sum.

Tariffs fit neatly inside a zero-sum frame. In theory, you tax imports to reduce reliance on foreign goods, boost domestic production, and protect local jobs. The implied premise is that trade gains are not mutual. They flow to exporters, while importers lose. Under that logic, every import is a leaked opportunity at home, a direct subtraction from domestic capacity.

And the strain doesn’t stop at trade policy. Institutions designed around presumed growth, notably the pensions and welfare systems of liberal democracies, often struggle when the baseline shifts. Their legitimacy depends on delivering rising living standards, or at least preventing decline. In a world constrained by planetary boundaries, that promise gets harder to keep. When distribution becomes the central problem under constraint, the system can tilt toward more coercive or hierarchical governance just to hold together.

In democratic systems, political parties, interest groups, and social movements compete to protect their constituencies’ access to diminishing resources, making consensus difficult and sometimes leading to policy paralysis. Arguably, this has been the fate of the UK Labour government elected in a landslide in 2024.

A more specific example is the United States’ handling of water scarcity in the American West. The Colorado River Basin still runs on the century-old Colorado River Compact, built on flow data from an unusually wet stretch that encouraged over-allocation. That misread baked in a structural deficit, now squeezed harder by mega drought conditions and climate change. As Lake Mead and Lake Powell dropped toward critical levels, the fight between agricultural users, fast-growing cities, and Indigenous nations stopped being a local courtroom sport and became a federal problem. Tribes with senior water rights, ignored for decades, have increasingly pushed their sovereignty to the front, insisting on a real seat at the table with governors and federal officials.

What has followed is cooperation of a kind the region rarely manages, and it still feels fragile. In 2023 and 2024, the Lower Basin states (Arizona, California, and Nevada) reached a landmark deal to cut water use in exchange for federal funding through the Inflation Reduction Act. The immediate purpose was to stabilise reservoir levels and avoid dead pool scenarios where water can’t move through hydroelectric dams. The relief is real, but it is temporary through 2026. The deeper consequence is legal and cultural, a slow pivot away from ‘first in time, first in right’ toward a more flexible, conservation-based model that treats the river as finite and shared, rather than an endless commodity.

Europe’s energy transition shows a different version of the same stress. The European Green Deal sets the banner goal of climate neutrality by 2050. But the carbon pricing and the winding back of fossil fuel subsidies that underpin it lands the hardest on rural and low-income people, who don’t have the infrastructure or the spare capital to jump to electric vehicles or heat pumps.

France gave the clearest early warning. In 2018, the proposal to raise the carbon tax on diesel hit a fuel many rural commuters are forced to rely on, and it became the spark for the Gilets Jaunes (Yellow Vests) movement. The uprising became a rejection of transition-by-price-shock, where long-term environmental outcomes are pursued without immediate, equitable safety nets for those most exposed to volatility.

That backlash has changed how European climate policy is built and sold. Once a transition is perceived as elitist, it stops being a technical pathway and becomes a political instability machine. The European Union’s response was to bolt redistribution into the policy architecture through the Social Climate Fund and the Just Transition Mechanism, explicitly routing carbon revenues back toward vulnerable households and supporting regions dependent on carbon-intensive industries. France, meanwhile, pivoted toward green leasing for low-cost electric vehicles and expanded subsidies for home insulation.

The European lesson is unromantic. The success of the energy transition hinges less on technical feasibility than on social legitimacy. And legitimacy, in this context, is earned through wealth redistribution and socio-economic equity, not slogans.

China’s approach sits at the other end of the governance spectrum, with national priorities first, local autonomy and public debate a distant second. The South–North Water Transfer Project, one of the largest engineering feats in human history, was built to correct a basic geographic mismatch of a water-rich south, and a water-poor industrial north. And unlike democratic systems that grind forward through litigation, hearings, and public comment, the Chinese state used centralised authority to imposed strict water quotas. It forcibly relocated hundreds of thousands of villagers to clear space for canals and reservoirs. This was command and control governance as fast execution, engineering efficiency, and a working assumption that environmental and social costs are manageable externalities in service of long-term national water security.

The result is effective, and still contentious. Water supply has been stabilised for the North China Plain and for Beijing. The project now diverts billions of cubic meters annually, slowing the dangerous drawdown of northern aquifers and keeping industrial growth on track. But the technical win carries large-scale social and ecological displacement.

In food crises or fuel shortages, authoritarian states may reach for rationing, price controls, or direct monopolisation of resource flows. Sometimes that delivers short-term order, including guaranteed access for elites while others are impoverished. These regimes can look more responsive or decisive, but the trade-off is long-term instability if repression fails to contain discontent, or if legitimacy is propped up by economic promises that cannot be sustained.

Yet, the distinction isn’t absolute.

In both systems, legitimacy erodes when resource allocation reads as unfair or simply incompetent. Sri Lanka’s 2022 collapse came from mismanaged agricultural policies and fuel shortages that helped trigger a crisis in which a nominally democratic government drifted toward authoritarian controls, then met mass protests.

The counterexample is what some democracies do when they treat scarcity as a coordination problem rather than a policing problem. Participatory budgeting and citizen assemblies, such as Ireland’s climate assembly, create a forum to negotiate shared sacrifices and allocate constrained resources in a way people can see as procedurally fair.

Taken together, the lesson is not that authoritarianism works or that it can look more decisive under pressure. But democratic resilience comes from adaptability, and from the ability to build inclusive responses to scarcity that preserve consent while making hard choices.

The arrival and prospect of resource constraints explain much of recent geopolitics and the rise of populism in the Global North. When scarcity rears its ugly head, doubling down to be the winner is as human as helping the blind man cross the road.

However, this is not new. Humanity has faced scarcity many times, as many humans do daily. This means that there are options and templates other than the capitalism of high-income democracies.

Societies have responded to scarcity in diverse ways, ranging from communal stewardship to hierarchical control, depending on their historical context and environmental constraints.

For example, Indigenous societies in arid regions, such as the Australian Aboriginal nations or the Pueblo peoples of the American Southwest, developed intricate land-use practices and spiritual frameworks that emphasised moderation, reciprocity, and intergenerational responsibility. These norms were often encoded in oral traditions and rituals, reinforcing sustainable relationships with finite water and food supplies.

The frame is different as there is no external energy beyond the power of fire. Everyone knows there is a limit and so various forms of sharing make good sense. Scarcity, in this context, was managed not only through practical techniques like seasonal rotation but through a culture that framed restraint as moral and communal.

In contrast, agrarian empires such as Ancient Egypt or imperial China managed scarcity through centralised bureaucratic systems. These regimes invested in large-scale irrigation systems, granaries, and taxation mechanisms that enabled surpluses to be stored and redistributed during droughts or famines. Here, scarcity management was institutionalised through state power, where administrative foresight and social hierarchy determined who bore the burdens of scarcity. Similarly, medieval European societies employed feudal systems and ecclesiastical authority to enforce moral and material norms related to scarcity through tithing, land tenure, and charity, often mediated by religious obligations.

Here there was some modest extra energy from crops and livestock, so long as everyone put labour in to ensure that agriculture was an energy source.

In modern capitalist societies, scarcity is usually expressed through the market as price signals and purchasing power. Access is resolved by who can pay, and the system can be efficient in some cases because it coordinates demand, supply, and substitution with relatively little explicit negotiation.

But that same design also hardens inequality. If scarcity is mediated by buying, then the wealthy don’t experience scarcity in the same way. They can buffer it, sometimes almost completely, through private access to water, food, or energy. Scarcity still exists, it just shows up elsewhere, and often for someone else.

Some countries have tried to blunt that dynamic with hybrid arrangements. The Netherlands and Singapore are examples of models that mix market tools with strong state planning and technological innovation. The point is not to abolish price signals, but to keep scarcity from becoming a pure bidding war by committing to long-term infrastructure investment and building social consensus around how land, water, and energy are managed.

Other regions follow a different logic. In parts of sub-Saharan Africa, customary tenure systems have been maintained or adapted alongside state institutions. That creates a layered governance structure with traditional authority operating in parallel with formal legal frameworks, and the balance negotiated rather than assumed.

The premise points to a core insight from political ecology and comparative anthropology. Scarcity is not just a material condition. It is also a social interpretation and a governance problem. How scarcity is perceived, organised, and responded to can vary dramatically across societies, even when the underlying constraints look similar.

And those responses are never purely functional. They express what counts as legitimate authority, what fairness means, who is owed protection, and what kinds of trade-offs are acceptable. More often than not, the zero-sum game is anticipated. And mechanisms are invented, refined, and deployed to manage it before it becomes a full-blown scramble.

One approach that has been around a long time is the commons, and it is worth its own premise…

Markets allocate resources through price signals and competition, while states distribute resources through planning and regulation. Hence, the establishment of ideology reflecting the state and the individual, broadly characterised by the left and the right, that dominates liberal democracies. However, this binary overlooks a long-standing and globally diverse category of resource management known as the commons.

Commons-based approaches involve communities collectively managing shared resources, such as fisheries, forests, irrigation systems, or digital knowledge, through negotiated rules, social norms, and mutual obligations. Elinor Ostrom’s pioneering work demonstrated that under certain conditions, commons systems can outperform markets and states in sustainably managing resources, particularly where local knowledge and social cohesion are strong. For example, community forest initiatives in Nepal and Mexico, cooperative water management in Spain’s Huerta systems, and urban commons such as community gardens or co-housing models in European cities demonstrate that commons governance is neither a relic of the past nor limited to pre-modern or Indigenous societies.

In the digital sphere, Wikipedia and open-source software embody a new frontier of commons production and maintenance. Peer monitoring, iterative rule-making, and nested institutions make such collaborations effective, principles Ostrom described as critical to long-term resilience.

There are at least five broad categories of commons, suggesting that any shared resource can mean very different things, with very different governance problems, depending on what is being shared and how use is constrained.

Here are the five.

Natural resource commons are the oldest form of collaborative stewardship. They rely on locally defined access rights and community-developed rules to govern shared resources such as watersheds, fisheries, forests, and grazing lands. What makes these systems durable is that the rules tend to track ecological feedback rather than abstract entitlement. You see this in Nepal’s community forests and Turkey’s rotating fisheries, but also in irrigation commons like acequia associations in the U.S. Southwest and community-managed grazing regimes where seasonal use, monitoring, and sanctions are socially enforced because overuse is immediately legible to everyone.

Agricultural commons take that logic into food production and land management. They organise planting, grazing, infrastructure, and seasonal rotation through collective decision-making and shared investment, which can make food systems more resilient under uncertainty. Switzerland’s alpine pastures and Brazil’s land reform cooperatives are familiar examples, and you can also see related patterns in communal irrigation schedules that coordinate planting across farms, or in shared grain storage and processing facilities that reduce individual exposure to price and weather shocks. And when people expect their descendants to work the same land, soil-building practices stop looking like sacrifice and start looking like rational investment.

Urban commons are the city-scale version of reclamation. They treat space, housing, tools, and capabilities as things that can be governed by users rather than surrendered entirely to privatisation or bureaucratic management. Community gardens, housing cooperatives, tool libraries, and maker spaces are the visible surface. Bologna’s Urban Commons Policy and Berlin’s housing cooperatives show how citizen-initiated governance can turn urban assets into community-building infrastructure, and similar dynamics show up when residents co-manage public squares, convert vacant lots into shared green space, or run local repair cafés that keep skills and access circulating outside the market.

Knowledge commons sit in a different category because the resource is informational and often non-rival. One person’s use does not diminish another’s, which changes the economic and moral logic of sharing. Wikipedia and open-source software communities work through contributor-led governance, transparent peer accountability, and licensing systems designed to keep resources accessible. You can see the same governance principles in open educational resources, collaborative scientific databases, and shared standards bodies, where the commons are not a plot of land but a continuously maintained corpus that only stays valuable if participation stays broad and the rules stay legible.

Climate and global commons extend the problem to planetary resources that cross borders and are difficult to police. The atmosphere, oceans, and biodiversity do not map cleanly onto sovereign jurisdictions, yet they absorb the consequences of national decisions. The Antarctic Treaty System and the Paris Agreement show that international commons governance is possible, even if it is complex and uneven. Related examples include global fisheries management regimes and coordinated efforts around ocean pollution, where the central challenge is always the same: aligning incentives and enforcement across diverse political contexts while balancing sovereignty with shared responsibility.

Commons models are a deep challenge to the assumption that only profit incentives or state coercion can organise human behaviour at scale, offering instead a third mode that emphasises relational responsibility, participation, and the reproduction of the resource base.

But they are not utopian.

They rely on trust, clearly defined boundaries, and the ability to enforce collective rules. None of these are easy to achieve, especially against the forces of individual freedom. And then what to do about resources that stretch beyond the backyard? Can a commons system govern the oceans or the atmosphere?

What about the prospect of new types of commons? Could the digital universe offer options transferable to the biophysical world?

There is no reason why digital technologies, including platforms, blockchain, AI, and data infrastructures, can’t transform the allocation and exchange of resources, goods, and services.

They enable new coordination systems that route around the usual market-or-state bottlenecks. Peer-to-peer platforms along with digital currencies and distributed ledgers can widen participation in exchange while making transactions and rules more transparent.

You see the same dynamic in open-source software and knowledge-sharing platforms. Contributors co-create and share value without central ownership, and the infrastructure itself makes that kind of commons-based production workable at scale. The promise here is not magic. It is a different operating model with efficiency and accessibility, plus the possibility of participatory governance that traditional institutions often struggle to deliver.

However, the same digital tools can easily be harnessed to concentrate control, influence and wealth.

Google, Amazon, Meta, Apple, and others have become some of the most powerful rent-seeking entities in history, leveraging data monopolies, network effects, and algorithmic control to extract value from users, workers, and even governments. Surveillance capitalism, algorithmic pricing, and platform dependency create asymmetries in which users and producers have limited agency, while a few corporate actors accrue disproportionate economic and political influence. Blockchain, while touted as decentralising, can also replicate inequality through speculative behaviour and environmental externalities. Moreover, algorithmic allocation can embed bias and opacity, thereby reinforcing systemic disadvantages under the guise of technical neutrality.

Such complaints are inevitable and have been argued for all types of commons. Humans are adept at bending systems to their gain, and digital commons will not be immune. But the upside is real and already includes several options.

Platform cooperatives offer a democratic alternative to extractive gig economy apps by putting ownership and governance in the hands of workers or users. Up&Go shows what that can look like in New York City where house cleaners receive 95% of revenue and participate in platform decisions, producing far fairer outcomes than conventional platforms where workers might receive as little as 50–70% of customer payments. Resonate in music streaming and Fairbnb in accommodation sharing push the same principle into other categories, using cooperative ownership to prioritise fair compensation and community benefit over extractive profit. Digital infrastructure can be designed to distribute value to the people who create it, instead of funnelling it to distant shareholders.

Digital knowledge commons work by resisting the artificial scarcity created by paywalls and proprietary control. The flagship example is Wikipedia. A global community of volunteers creating and maintaining the world’s largest encyclopedia through transparent governance and consensus-based rules. OpenStreetMap applies similar logic to mapping, where contributors collectively build shared data that ends up powering humanitarian responses and countless applications. PubPub extends the approach into academic publishing, offering an open alternative to commercial scholarly platforms. Together, these commons make the same argument that knowledge production scales through collaboration, and public resources can serve far more people than privatised alternatives ever will.

Community networks challenge the corporate monopolisation of internet access by putting ownership of infrastructure directly in community hands. Spain’s Guifi.net has grown into one of the world’s largest community networks, providing affordable connectivity through collaborative infrastructure development across Catalonia. NYC Mesh brings the same ethos to underserved New York neighbourhoods, treating connectivity as a shared civic project rather than a premium product. Althea adds another coordination layer, enabling neighbours to buy and sell bandwidth directly from each other using blockchain micropayments. This is infrastructure, given internet access is essential, and too important to be left solely to profit-maximising telecoms.

Data commons and trusts take on the idea that data is private property to be extracted and monetised without meaningful consent. Mozilla Rally gestures toward an alternative by letting users donate their browsing data specifically for public-interest research, while maintaining privacy and control. Europe’s DECODE project has developed tools that give citizens greater sovereignty over their data, and organisations like India’s Aapti Institute are designing data trusts, so communities can govern shared data resources collectively. The point is to replace unilateral extraction with transparent governance so data serves its originators rather than being weaponised against them.

Open-source and cooperative technology development extends this governance logic into the tools themselves, building software owned by communities rather than corporations. Signal is a nonprofit governance and privacy-first design that creates a real alternative to commercial social platforms. Co-budget and Loomio, emerging from the Enspiral network, focus on democratic decision-making and resource allocation inside organisations, turning governance into something people can actually do rather than merely endorse. Nextcloud provides community-governed alternatives to corporate cloud storage, keeping control closer to users. Taken together, these projects show that software can be organised cooperatively and need not default to extractive business models.

Ultimately, digital technologies are not inherently equitable or extractive. They are infrastructures shaped by political design and institutional context. Their capacity to enable fairer distribution depends on how governance is structured, specifically who owns the platform, who controls the data, and who has decision-making power. Digital commons initiatives demonstrate that alternative models are possible.

Digital technologies can and do enable new forms of allocation and exchange, but they are not innately equitable. Just ask a kid in the overcrowded informal settlements of Kibera, Mathare, Mukuru, or Korogocho in Nairobi, if their mobile phone, which is deeply integrated into their life, is smart enough or gives them enough access.

The concept of the commons, even with the mechanisms to implement it, is a start, but perhaps not enough of a rethink when equity is as skewed as it has become. Options to cope with the zero-sum framing of global and local resource use need to be developed further, which brings me to this premise…

As we know, markets allocate resources based on price signals, supply and demand, and individual preferences. While efficient in some contexts, these mechanisms are ethically agnostic. They do not inherently distinguish between needs and wants, nor do they address historical injustices, power asymmetries, or structural inequalities. Left unregulated, markets tend to concentrate wealth and marginalise those who cannot participate on equal terms, such as the poor, the disabled, or future generations. Even where markets function efficiently, they may still produce outcomes that are socially or morally unacceptable.

In 2025, a vial of insulin in the US costs $50 and in the EU $5.

A just distribution might prioritise the needs of the most vulnerable, ensure capabilities like health and education, or enshrine ecological stewardship as a moral duty. Ethical frameworks often recognise positive obligations, such as the right to food or shelter, which markets do not naturally provide without coercive structures like taxation, redistribution, or public provisioning.

From climate justice movements to debates over universal basic income, there is increasing recognition that technocratic or market-centric policies are insufficient for meeting complex social and ecological needs. Digital technologies, too, have demonstrated how algorithmic allocation can be efficient yet unjust when divorced from democratic oversight and ethical considerations. The rise of stakeholder capitalism, ESG (Environmental, Social, Governance) metrics, and degrowth debates reflect efforts to reintroduce moral reasoning into economic structures with varying degrees of success.

Despite the near universal dominance of markets in the West, there already exist several ethical frameworks, and here are a few of the well-known ones.

Rawlsian justice runs a simple mental stress test on self-interest. It asks to design the distribution system without knowing where you’ll land inside it. That veil of ignorance leads to Rawls’s difference principle, which states that inequalities are only justified when they benefit society’s most disadvantaged members. Where market-based approaches tend to reward existing advantage, Rawlsian distribution puts basic liberties first and builds safeguards for the vulnerable.

For example, a progressive tax-and-transfer scheme can be defended on Rawlsian grounds if the higher rates on top incomes fund healthcare, education, or income supports that measurably improve outcomes for the least advantaged. The inequality in take-home pay remains, but the justification depends on whether the bottom benefits in concrete, durable ways.

Still, for all its logical clarity, the framework sits firmly inside Western liberal individualism. That can matter. It may miss how identity, history, and culture shape what fairness actually looks like and how people experience it.

The capabilities approach changes the question from what do people have? to what can they actually do and be with what they have? Developed by Sen and Nussbaum, the framework starts with the fact that identical resource allocations can produce radically different outcomes once you account for individual circumstances, social barriers, and environmental context. So instead of chasing abstract equality, it pushes toward substantive freedom and opportunity across things like health, education, and political participation.

So, suppose you give two people the same mobility stipend. If one lives in a city with accessible public transit and the other lives in a rural area with no services or faces disability-related barriers, the equal allocation does not buy equal freedom of movement. The resources are the same. The capability isn’t.

The capabilities approach resists one-size-fits-all metrics. It treats flourishing as plural, shaped by culture and by the person, not reducible to a single scoreboard. Implementation is hard. But it offers a principled alternative to narrow economic measures of wellbeing that miss what actually matters in human lives.

Utilitarianism is the most pragmatic distribution frame because it sends resources to wherever they produce the biggest total gain. It sits underneath modern economic analysis, policy evaluation, and effective altruism for a reason. The rule is to maximise the sum of individual utilities. That simplicity gives you traction when the choice set is ugly, especially in disaster response or public health.

For example, after a major earthquake, a utilitarian triage plan might concentrate limited medical staff and supplies on interventions that save the highest number of lives per hour, even if that means some remote communities receive less immediate support.

But the same aggregate focus is where the danger lives. If you only optimise the total, you can end up justifying severe harm to minorities, so long as the spreadsheet says overall utility rises. The willingness to make hard trade-offs is utilitarianism’s strength and its vulnerability. It has no built-in protections for individual rights and dignity. Its emphasis on consequences over intentions is valuable, but it needs tempering with complementary ethical frameworks.

Indigenous and relational ethics change the frame entirely. Distribution becomes a question of the relationships that hold people, non-human beings, and land together across generations. In this view, you cannot separate justice from reciprocity, stewardship responsibilities, and ecological balance. Resources are not just commodities to allocate efficiently. They are parts of living systems with their own integrity and requirements, and those requirements place limits on what fair can mean.

A community managing a salmon fishery may treat allocation as a shared responsibility to keep the run healthy over time, not as a maximisation problem. That can mean setting harvest practices around ecological thresholds and community obligations, even when higher short-term extraction is technically possible.

These perspectives can be challenging to carry across different cultural contexts. But they offer crucial insight for the contemporary polycrisis, especially sustainable resource use and intergenerational justice.

Marxist and critical theories don’t start by asking how to distribute the pie more fairly. They start by asking who owns the bakery. Instead of treating inequality as a problem to correct inside the existing system, these approaches target the structures that produce unequal wealth and power in the first place, especially control over productive assets, the terms of labour, and who gets to make decisions. On this view, justice is about transforming exploitative class relations that generate those outcomes.

Rather than relying on higher wages or tax credits to make work fairer, a structural response might be shifting ownership and governance through worker cooperatives or stronger collective bargaining, so workers have real control over labour conditions and the surplus they help create.

That structural lens also clarifies why market-based distribution so often reproduces historical inequality. Extraction and alienation don’t stay local; they scale. Global supply chains can look like neutral logistics while still concentrating power upstream and pushing costs as low wages, unsafe conditions, and environmental damage, downstream.

Markets can serve as tools, but justice requires frameworks that define what ought to be, not just what is efficient. Ethics provides the compass that markets lack, ensuring that allocation aligns with dignity, sustainability, and shared responsibility, not just exchange value.

And so we are back to the conundrum set at the beginning.

There is a problem with justice in zero-sum games because they inherently lack it. The prospect of 8 billion humans entering a winner-takes-all scenario, driven by insufficient energy and natural resources, will spell catastrophe.

It was tempting to begin this essay on inequity with the trillions of dollars controlled by the tiny fraction of the world’s wealthiest individuals.

I could have quoted endless statistics for the disparities between the billionaires and the rest of us. It would be easy to bash them. They are the winners in the zero-sum game, even if capitalism was touted as a game that everyone can win but only a few actually do. Familiar to us are Elon, Jeff, Mark, Donald and their mates, but get rid of them and new names will appear instantly. They are one of the symptoms of capitalism injected with growth hormone in the form of fossil energy.

I could also have done something similar with the North-South divide. The appropriation of global resources through imperialism, neocolonialism, eco-fascism and even war, all both current and historical, means that I, along with a billion or so of my, mostly white, fellows in liberal democracies, live like kings compared to the billion poorest in the world and use way more resources per person than the majority of the 7 billion in the Global South.

Rethinking equity cannot be merely aspirational when we face the looming reality of ecological constraints. Throughout human history, our evolutionary drive for more making has operated within local limits, occasionally punctuated by resource wars. What makes our current predicament unique is its global scale and unprecedented speed.

We’ve built economic and social systems that require perpetual growth on a finite planet, a mathematical impossibility that is now catching up with us.

The transition to a zero-sum game is not a distant theoretical concern but an emerging reality. Climate disruption, topsoil loss, aquifer depletion, and biodiversity collapse are manifestations of humanity’s impact on hitting planetary boundaries. Left unaddressed, these constraints will force zero-sum dynamics through ecological triage, resource nationalism, and the politics of scarcity.

The constraint exists. We all know it. The question is the response, what to do about it.

We can default to the familiar road of winner-takes-all competition with its inevitable conflict, suffering, and, eventually, collective failure. Or we can choose to design systems that share the burdens and the remaining prosperity with justice and foresight. That’s pragmatism and perhaps ironically, in a deeply interconnected world under systemic constraint, cooperation is evolutionarily advantageous.

So the assignment isn’t to fix capitalism or replace it with socialism, or pick a favourite flavour in between. It’s to build hybrids that acknowledge limits while preserving human dignity.

The mindful sceptic sees what’s coming and doesn’t romanticise it. In an era of constraint, our competitive instincts have to be channelled into cooperative frameworks not because it’s nice, or woke, but because it’s necessary.

Notes & Sources (for the curious)

Planetary limits and the “polycrisis” frame

• Planetary boundaries overview + updates — Stockholm Resilience Centre (latest boundary updates); Rockström et al. (2009)

• Climate impacts + risk framing — IPCC AR6 WGII (2022); WMO State of the Global Climate (latest edition)

• Biodiversity collapse (global assessment) — IPBES Global Assessment (2019); Living Planet Report (WWF/ZSL, latest edition)

• Soil degradation / land health (global synthesis) — FAO global soil resources reporting; UNCCD Global Land Outlook (latest edition)

Fossil energy, growth, and distribution

• Energy basis of industrial growth + long-run transitions — Our World in Data (energy & emissions datasets); IEA World Energy Outlook (latest edition)

• Global inequality + North–South structure — World Inequality Report (latest edition); World Bank poverty/inequality dashboards (latest edition)

Scarcity politics in practice

• Colorado River over-allocation + 2023–2026 shortage deals — U.S. Bureau of Reclamation (Colorado River Basin/Lower Basin agreements); NOAA/USGS drought & hydrology context (relevant series)

• EU transition legitimacy + Yellow Vests + compensatory funds — European Commission Green Deal pages; EU Social Climate Fund / Just Transition Mechanism

• Sri Lanka 2022 crisis (fuel, macro, policy) — IMF country reports (2022–2023 window); World Bank crisis updates.

Commons, digital power, and ethical allocation

• Commons governance “design principles” — Elinor Ostrom, Governing the Commons (1990)

• Platform power / surveillance capitalism — Shoshana Zuboff (2019); OECD on digital market concentration & platform competition.

• Ethical frameworks for distribution (Rawls/Sen/Nussbaum) — Rawls A Theory of Justice (1971); Sen/Nussbaum capabilities work (key texts/years)

A Systems Spine turns Insight Vault fragments into a coherent sequence. Each one starts with posture, passes through constraints and incentives, and ends with practical implications. The aim is legibility under pressure. Track ecology, energy, mass-balance, and incentives and the world stops looking so mysterious.

Modern food stories talk about yield, technology, and resilience. They rarely talk about mass balance.

But the thing is that agriculture moves matter from fields to mouths, then to wastewater, landfill, and rivers. That looks like production, but it is also extraction, unless nutrients and carbon cycle back at the same scale and with the same reliability.

It’s like the farm and the soil are an accounting system. Exports create debt, circularity has transition costs, and biology does work that machines cannot cheaply replicate. The payoff is strategic. If you want food security, you stop arguing about labels and start tracking flows, functions, and depletion rates.

Farming is defined by exporting nutrient-dense biomass, so long-run productivity requires returning nutrients equal to cumulative exports.

This is a physical constraint, not a branding problem. Even well-managed rotations and high-function soils cannot conjure phosphorus and other mineral nutrients once they leave the system. Imports can be synthetic fertiliser, manure, compost, or recovered waste streams, but the balance still has to close. The orthodoxy says regenerative methods can make agriculture non-extractive, yet mass balance does not negotiate.

And closing loops at scale imposes transition costs that show up as lower saleable yield.

During the transition to circular agriculture, energy and nutrients are diverted to soil recovery, which reduces saleable yield unless demand falls or land area expands.

Circularity is real, but it is not free. Rebuilding soil organic matter and biology often means more cover, more residue return, and more time in non-cash phases. If the market insists on the same output, the system compensates elsewhere through new land conversion, more inputs, or both. The orthodoxy says circular systems can deliver equal yields without tradeoffs, but the transition phase is the tradeoff.

And because the constraint is not only nutrients, it is the soil functions that make nutrients available in the first place.

Civilisation’s food supply depends on soil-decomposer networks that mineralise nutrients, and degrading these functions risks failure.

Soil is not an inert medium, it is a living metabolic engine. Decomposer communities mediate nutrient release, aggregation, water handling, and disease suppression through interactions that are hard to isolate and replicate.

Industrial practices can keep yields high for a time by leaning on external inputs, but they also simplify the underlying biological machine. The orthodoxy says innovation and inputs can replace biology, yet replacement usually means more dependence and less resilience.

One of the largest hidden costs of degrading soil function is the carbon it releases and the mitigation it forecloses.

Land-use conversion and agricultural management have moved large stocks of soil carbon into the atmosphere. This legacy of past conversion and disturbance continues through intensive agricultural practices that accelerate oxidation and erosion.

Restoring carbon is slow, and it competes with short-term production pressures and with the transition costs of circularity. The orthodoxy says climate change is mostly smokestacks and tailpipes, but land and soil are part of the forcing and should be part of the solution.

Because soil is a climate and food determinant, conservation priorities should shift toward the biodiversity that makes soil work.

Because soil is full of biology that underpins nutrient cycling and crop productivity, protecting soil biodiversity delivers greater societal benefit than prioritising rare megafauna.

Charismatic species attract funding because they are visible, but soils run the metabolism that keeps societies fed. Biodiversity in soil is not a luxury layer, it is the operating system for nutrient cycling and productivity. When that system is degraded, the replacement path is higher inputs, higher costs, and higher fragility.

The orthodoxy treats rare megafauna as the main conservation target, but the backbone is mostly invisible.

But even when we recognise the backbone, growth economics still pressures the system toward net depletion.

In growth-driven economies, efficiency and technology do not reliably prevent net natural capital depletion because regeneration is slower than extraction and rebounds and leakage erode gains.

This is the macro frame that makes the soil story repeat everywhere. Gains in productivity often increase total throughput by lowering cost, and protective measures in one place can shift extraction to another. Regeneration works on ecological time, while markets price on financial time, so depletion looks rational until the bill arrives. The orthodoxy promises decoupling, but the balance sheet keeps moving in the wrong direction.

Food security depends on treating soil and nutrients as a constrained stock and flow system, not a story about better intentions.

Conclusion

Agriculture exports nutrients and carbon. If those exports are not returned, the soil pays the bill in depleted stocks and impaired biology.

Circular systems can close loops, but they carry transition costs that show up as lowered saleable yield unless demand and land use change. Meanwhile, the real work of fertility is done by decomposer networks that are difficult to replace with engineered substitutes.

Once you see that, you stop treating soil as scenery and start treating it as critical infrastructure.

Knowing this prompts a critical question for every food debate... Does this proposal close the nutrient and carbon accounts while protecting the biological machine that makes the accounts operable?

Because not even slippery accountants can optimise a balance sheet you refuse to measure.

Coming soon

G22 | Getting to 2 billion

Curated Insights, deeper Explainers, monthly live catchups, and a moderated forum for thinking clearly about a humane population contraction—without coercion, denial, or collapse.

We like to think of civilisation and living systems as builders of order, but they are specialised entropy engines that must degrade energy and increase global disorder to keep their internal structure intact. By burning ancient, low-entropy fossil fuels, humanity triggered a Great Acceleration that temporarily cheats ecological limits while creating a spike in disorder that destabilises the planet’s natural management systems. Mainstream sustainability is fundamentally flawed because it ignores this Second Law of Thermodynamics, which makes perfect balance or zero impact a physical impossibility. To survive, we have to drop the comfortable myth of returning to a static historical baseline and move to a physics-consistent strategy that manages the rate and pattern of inevitable entropy increase.

According to classical thermodynamics, entropy always increases in closed systems, suggesting an inevitable slide into equilibrium and disorder. Any ordered object from an ant to an automobile contradicts this law of nature. Ilya Prigogine (1917–2003), who won a Nobel Prize in Chemistry, studied complex systems and argued that order and complexity do not violate the second law of thermodynamics. Instead, they arise because of it in open systems.

While entropy increases globally, local pockets of order, including life, can form as long as overall disorder increases, challenging the prevailing view that entropy only leads to disorder. Prigogine’s insight was to show that in open systems, which exchange energy or matter with their environment, entropy could increase in a way that creates new levels of order.

In other words, life makes sense, even when a cursory glance at the laws of physics suggests it shouldn’t.

But let’s back up a moment.

Do you know what entropy is?

No? Well, you are not alone. I have been carrying around a rudimentary understanding of it for years. Unless you take physics in high school or college, entropy isn’t studied by the general student or discussed much at dinner parties, for reasons that will become clear. However, you probably need to know what entropy is and how it structures nature if you are at all curious about the human condition and how 8 billion people are acting on a finite planet.

Here is a standard definition…

Entropy is a measure of disorder, randomness, or the number of possible microscopic configurations within a system. It reflects the natural tendency of energy and matter to spread out over time.

In thermodynamics, entropy is often described as a measure of a system’s disorder. A more precise way to think about it is as a measure of how many ways the parts of a system can be arranged without changing its overall observable state. The more possible arrangements there are, the higher the entropy.

For example, a neatly stacked pile of blocks has low entropy. There are a small number of ways to keep it orderly and recognisable as a stack of blocks. In comparison, a pile of randomly scattered blocks has high entropy because there are countless ways to scatter them without any noticeable order.

The Second Law of Thermodynamics states that entropy tends to increase over time in an isolated system, which is a closed one that exchanges neither matter nor energy with its surroundings. This doesn’t mean that order can’t appear locally, but that creating local order, such as an ant’s body, requires expending energy and increasing entropy elsewhere. This universal trend toward higher entropy explains why processes naturally move toward equilibrium; why hot things cool down, gases spread out, and structures decay unless maintained.

Entropy is a description of chaos and a profound principle governing the arrow of time and energy flow.

Entropy also captures the idea that systems left alone tend to evolve toward more probable, less structured states. It is one of the fundamental pillars underlying the behaviour of the universe. It is why perpetual motion machines are impossible, why aging happens, and why energy resources degrade.

This was something close to my rudimentary understanding. I would mention entropy as explaining why the leaf breaks down when it falls from the tree, why the rock becomes soil, and why anything ordered and organised needs maintenance.

Entropy is a measure of the tendency of order to break down, hence the quote… Entropy is the price of structure.

I used this basic understanding to build my core explanations for the Malthusian trap, biodiversity loss, climate change, geopolitical instability, economic disruption, and technological upheaval, which became the topics of the Mindful Sceptic Guides.

In this mindful sceptic view, energy, specifically fossil energy, is why the human experiment has resulted in 8 billion individuals and their livestock making up 96% of the mammal biomass, why 100 million barrels of oil a day are used to power the process of keeping all these people fed and busy, and why so many people feel overwhelmed, powerless, and alienated in the face of complex, converging global disruptions.

Humans are heterotrophs that must consume, or the complex order of the chemical engines that give us life will collapse, and we decay because the laws of nature want entropy to increase.

And it is tempting to stop there. But if we do, the conclusion is that we need more energy, preferably from a clean source, to maintain the human experiment. The systems that rely on oil, coal and gas are refitted to work with the alternatives, currently some combination of solar, wind, geothermal, hydro and nuclear fission. In short, we have to have an energy transition from fossil fuels to renewable energy, requiring technological innovation, supportive policies, and global cooperation.

Conventional wisdom assumes that this shift is not only an environmental imperative but also economically advantageous eventually, as renewable energy costs decline and climate-related damages mount. Key enablers include the electrification of transport and industry, improvements in energy efficiency, and investment in smart grids and storage technologies.

More assumptions follow. Policy frameworks are essential to managing this transformation, with carbon pricing, subsidies for clean energy, emissions standards, and international agreements like the Paris Accord serving as standard instruments. The private sector is expected to provide green finance, technological innovation, and corporate sustainability targets. Governments must balance market mechanisms with regulatory frameworks to drive innovation while ensuring energy security and social equity. Public support, primarily through democratic processes and consumer behaviour, is often considered a cornerstone of success.

Critics emphasise the oversimplification, underestimation of systemic inertia, geopolitical complexity, material constraints, and uneven disruptive social consequences of such a transition.

In other words, the focus is on the practicality of such a shift rather than the shift itself.

I was caught up in this, too. For many years, I advised on carbon offset projects and methodologies because I thought that decarbonising the human enterprise was a good idea, even essential. This may still be true, but I had a nagging doubt.

Something was off.

In the real world of humans making more, we were all up against the natural tendency of energy and matter to spread out over time.

But I didn’t fully understand entropy. And neither did almost all the humans thinking about the environment. They agreed with this…

As we now know, the Second Law of Thermodynamics states that entropy inevitably increases in isolated systems because energy and matter spread out over time.

While local order can be created, as happens in living organisms, this always comes at the cost of generating greater disorder elsewhere. Human existence, like all life, fundamentally requires energy conversion that accelerates entropy.

Even the most efficient, sustainable systems still degrade energy and increase overall entropy. This physical reality contradicts simplistic sustainability narratives that suggest we can achieve perfect balance or zero environmental impact. Instead, we must recognise that our existence necessarily participates in entropy increase.

Carbon neutrality, circular economy, sustainable development and a whole paradigm of sustainability share the common goal of achieving a better alignment of human activities with Earth’s ecological limits. This desire is underpinned by systems thinking, which seeks to reduce waste, optimise resource use, and mitigate environmental damage. They are aspirational models that aim to slow or stabilise unsustainable trends like emissions and resource depletion.

But here is the flaw in the assumption.

In thermodynamic terms, human activity will always generate entropy because all physical processes do, particularly those involving energy transformations from burning fuels, to manufacturing and food production. No real-world system can avoid this entirely. Instead, strategies like the circular economy might limit unnecessary entropy by designing closed-loop systems that reuse materials, extend product lifespans, and prioritise renewable energy. Carbon neutrality similarly does not eliminate emissions entirely, but offsets them elsewhere in an attempt to reduce net impact.

Current environmental thinking implies that human systems should approach ecological equilibrium, even if a state of minimal entropy or complete balance is unrealistic.

Not many people think like this, but these ideas are best understood as guiding principles rather than scientifically or thermodynamically achievable end states. The real aim is to create systems that are more resilient, adaptive, and regenerative—not ones that are entropy-free.

Such a caveat is a nod to the laws of physics, but is it enough?

If we make entropy explicit, does it change the focus? Let’s test this assumption…

Life appears paradoxical from an entropy perspective. Organisms maintain highly ordered structures despite thermodynamics dictating increasing disorder. However, this misunderstands life’s relationship with entropy. Living systems don’t oppose entropy; rather, they are specialised structures that accelerate it.

When a tree grows or an animal develops, they create local order but at the cost of greater disorder in their surroundings. The metabolic processes that maintain life’s complex structures release waste heat and degrade matter, increasing overall entropy more efficiently than if the energy had been left unused.

Ecosystems like fertile soil appear more ordered than bare rock, but they actually accelerate energy dispersal through countless biochemical pathways, microbial activities, and nutrient cycles. This reveals life’s fundamental thermodynamic function to create temporary pockets of order, precisely because these structures help energy spread and degrade more rapidly.

Why does life increase entropy?

Life increases entropy because, while living organisms maintain internal order, they do so by consuming energy and resources, releasing more waste heat and disorder into their surroundings than the order they create.

This is counterintuitive but a critical concept.

At first glance, life defies the Second Law of Thermodynamics because plants grow, animals build complex bodies, and ecosystems form intricate networks, all highly ordered structures. However, life does not violate the law; it operates within it. Living systems maintain and even increase their internal organisation by taking in energy (like sunlight or food) and using it to build and maintain their complex structures. But in doing so, they release waste energy, primarily as heat, and degrade matter into less ordered forms (like carbon dioxide, water, and other waste products). This waste increases the total entropy of the environment more than the local decrease in entropy inside the organism.

For example, a growing tree absorbs sunlight and uses it to assemble carbon atoms into elaborate cellulose molecules, reducing internal entropy. But the process of capturing and converting solar energy is inefficient, and much of the energy is lost as heat into the surrounding environment. The tree also releases oxygen and water vapour, increasing disorder around it. From a whole-system view, the tree’s local order is more than compensated for by a net increase in entropy in the environment, entirely in line with the Second Law.

Evolution, metabolism, and ecological interactions are all ways life channels energy flows, converting useful energy into less practical, more randomised forms. Life thrives by temporarily capturing order, but must pay the unavoidable cost of contributing to the universe’s broader journey toward higher entropy.

Let’s take soil as an example.

Soil, which is full of life, has higher entropy than the rock it was made from, conforms to the second law because its living processes and structure disperse energy more effectively than rock and contribute to a greater overall increase in entropy.

Soil represents one of nature’s most remarkable transformations. The rock it is derived from is like a locked vault of energy. As soil forms, the weathering process constructs a porous, chemically reactive environment where energy can flow through countless channels. Water moves through networks of spaces. Organic compounds fuel microscopic communities. Plant roots establish underground highways for nutrient transport. Gases facilitate chemical reactions that are impossible in solid rock.

Each component multiplies the system’s capacity for energy dispersal. Sunlight powers photosynthesis, drives evaporation, and triggers thermal cycles that influence soil chemistry. Microbes orchestrate decomposition processes that release stored energy from organic matter. Earthworms engineer soil structure while redistributing materials throughout different layers.

Soil is busier energetically.

Rock holds energy like a patient miser, slowly absorbing sunlight and gradually releasing warmth. Soil, however, hosts a constant party of activity. Microbes feast on organic matter, accelerating chemical reactions that would crawl along at a geological pace in bare stone. It is a highly efficient method for increasing overall entropy. What looks like increasing order represents the universe’s fundamental drive toward energy dispersal, just happening through biological pathways rather than simple thermal radiation.

This illustrates a crucial subtlety of thermodynamics… local increases in complexity (like fertile soil) can and do arise naturally, but they are always accompanied by greater entropy increases elsewhere in the system.

Here’s the thing.

When humans use soil to channel that energy dissipation into crops and livestock, we speed up the energy degradation. Again, this sounds paradoxical until we give it some thought.

When farmers add synthetic fertilisers to soil, it dramatically increases the availability of nutrients that drive plant growth. This turbocharges the system’s productivity so that crops grow faster, biomass increases, and short-term yields rise. But this accelerated biological production is also a form of faster entropy increase. The soil system, now flooded with concentrated energy in the form of bioavailable nitrogen and phosphorus, for instance, breaks its usual pace of slow, layered cycling of matter through microbes, fungi, and invertebrates. Instead of organic matter being decomposed gradually and nutrients being recycled through food webs, the system bypasses these slower, life-building steps and becomes a simplified pipeline…

input → rapid plant growth → output.

In thermodynamic terms, the farmer has increased the energy gradient. Adding more energy and nutrients into the system speeds up flows but in doing so, also breaks down the internal structures (microbial networks, fungal hyphae, humus formation) that buffer, store, and moderate energy release. The result is a system that becomes more brittle and leaky as microbial diversity falls, organic matter oxidises and erodes, and the soil’s ability to retain water, resist pests, and self-regulate declines. Over time, this leads to declining fertility, requiring even more fertiliser to maintain yields. This is a well-known, if often ignored, positive feedback loop driven by entropy acceleration.

It’s also a wicked paradox.

By forcing biological production to go faster to yield more grain or fatten livestock, intensive agriculture also accelerates entropy increase, not just through energy dispersion, but through the breakdown of complex, evolved systems that normally modulate it. Fertile, living soil is a masterpiece of slow entropy management; synthetic inputs override this and burn through complexity for short-term gains. What follows is a degradation of the very systems that kept entropy in check, leading to long-term disorder despite short-term productivity.

We often think of The Great Acceleration as being about technology, wealth creation and human population growth, but really it was energy dissipation.

Now it is time to expand this example from soil and apply the following premise to the entire human experiment…

When humans extract and burn fossil fuels, we are releasing in mere centuries energy that was captured and concentrated over millions of years. These fuels exist in extraordinarily low-entropy states as tightly bound carbon-hydrogen compounds that formed through geological processes over vast timescales, buried deep in the Earth.

By combusting them rapidly, we dramatically accelerate entropy increase, releasing this stored energy as heat and converting ordered chemical compounds into more disordered gases like CO₂. This acceleration overwhelms Earth’s natural entropy management systems, especially the carbon cycle, causing atmospheric and oceanic disruption. Industrial civilisation essentially functions as a massive entropy engine, depleting concentrated energy reserves and producing high-entropy outputs at unprecedented speed.

Humans are the embodiment of the Second Law.

So, before we start blaming the fossil fuel companies for their negligence and profiteering, burning fossil energy isn’t unnatural in principle. It follows thermodynamic laws. However, the rate and scale of this energy pulse and its associated entropy spike are unparalleled in Earth’s history, pushing planetary systems into new and often unstable states that threaten the conditions that support complex life.

Human appropriation of fossil energy and conversion of that energy into food and then more people (an additional 6 billion in less than 100 years) just increases entropy and makes low-entropy states less likely. In other words, we should expect disorder to increase.

Unlocking and burning fossil energy at an unprecedented rate, humans created agricultural surpluses, cities, machines, and infrastructure that are all forms of temporary order that require constant inputs to maintain. The global food system, in particular, is a prime example of how this fossil energy has been funnelled into producing enormous quantities of biomass (mostly as human bodies and livestock that now make up 96% of the mammal biomass on the planet) through fertilisers, mechanised farming, irrigation, and transport which are all systems that would be impossible to sustain at current scales without this energy subsidy.

From a thermodynamic perspective, this is a massive entropy engine. We are rapidly converting low-entropy fossil fuel into waste heat, carbon dioxide, degraded soils, polluted water systems, and simplified ecosystems.

I know, I am repeating myself, but I must.

While the human population and its support systems appear to be a form of complex structure, they are built on and dependent upon accelerated degradation of the Earth’s biophysical systems. The more people there are, and the more energy each person consumes, the more the biosphere is pushed into higher-entropy states, where systems lose resilience, feedback loops spiral out of control, and the ability to recover or sustain complexity diminishes.

This process doesn’t make lower-entropy states like intact forests, rich soils, or stable climates impossible, but it does make them less probable. Stability is less likely to re-emerge or be maintained without deliberate restraint and energy redirection.

In thermodynamic terms, we’ve moved the system away from a self-organising equilibrium and into a state where high-entropy outcomes like desertification, biodiversity collapse, atmospheric instability are more likely simply because the energy gradients driving order have been flattened or exhausted.

Thus, our appropriation of fossil energy has let us cheat the limits for a while. But it only works as long as we keep burning through the planet’s stored order. Unless we transition to systems that can sustain complexity on renewable flows, the defiance ends.

And there it is, the fundamental truth… unless it uses renewable flows rather than drawing down the planet’s stored order.

We hear the renewable part from sustainability orthodoxy all the time. What we don’t hear said is anything about the stored order or the self-organising that happens to maintain lower entropy.

Most of the time, we are subject to the following…

Conservationists in Australia are all familiar with the year 1788. For them, it represents the beginning of large-scale European colonisation, which dramatically altered the continent’s ecosystems. With the arrival of the First Fleet, traditional Aboriginal land management practices were rapidly displaced, and European farming, grazing, and urbanisation began to degrade native habitats.

1788 represents the baseline, what the landscape was like before the profound ecological changes that followed European land use. It is a symbol of the need to protect what remains of Australia’s unique biodiversity, much of which had evolved in isolation for millions of years before the colonial impact.

The overwhelming temptation is to use the 1788 baseline as a historical reference point to assess the extent of ecological change since European colonisation and to guide restoration efforts toward pre-colonial biodiversity and land management practices. Scientists and policymakers use it to identify which species and habitats have been most affected and to set restoration goals that aim to recover elements of pre-colonial ecosystems. For example, reintroducing native species, controlling or eradicating invasive species, and restoring fire regimes that reflect traditional Indigenous practices are all strategies informed by the 1788 benchmark.

At first glance, this is reasonable logic. Triage the landscape and decide on where limited conservation effort goes by using past conditions as a guide for what are tricky, value-laden decisions.

It also neatly sidesteps thermodynamics by assuming that it is possible to reorder the landscape to its lower entropy state that was present before the new energy dissipation practices arrived.

But it’s not just about saving koala habitat.

There is a logic gap that appears throughout mainstream sustainability advocacy, which promotes valuable practices like renewable energy, circular economies, and conservation. However, it often implicitly frames sustainability as the potential elimination of human environmental impact or a return to a static balance with nature.

This framing misunderstands or ignores the thermodynamic foundation of all systems—that entropy inevitably increases, and perfect equilibrium is impossible. Even the most, so called, sustainable practices still degrade energy and increase entropy; they simply do so more slowly or within Earth’s regenerative capacity.

Remember, life is an energy dissipation system pretending to be in order.

This misconception partly stems from how human culture naturally conceptualises problems and solutions, preferring narratives of restoration and balance over acknowledgment of constant change and degradation. But by failing to integrate thermodynamic principles, sustainability movements risk setting unrealistic expectations and designing strategies that don’t account for system dynamics.

A more honest and effective approach would acknowledge that sustainability isn’t about preventing entropy, but about managing its inevitable increase in ways that preserve living possibilities over the longest timeframe. This thermodynamic understanding would strengthen sustainability education and advocacy by grounding it in physical reality rather than idealistic but ultimately unattainable notions of perfect balance or retreat to some historical baseline.

What we like to think of as the balance of nature suggests a stable, self-regulating equilibrium where ecosystems maintain harmony unless disrupted. The pre-1788 conditions. However, from the perspective of thermodynamics, such a balance is inherently temporary and constantly subject to change. Natural systems are always dissipating energy, degrading over time, and moving toward thermodynamic equilibrium, which, in practical terms, is a state of maximum entropy and minimal usable energy.

While ecosystems can exhibit periods of relative stability, these are dynamic, not static. They are far-from-equilibrium systems that survive by dissipating energy. The thermodynamic view reframes the balance of nature as a process of continuous adaptation and flux, not a fixed or ideal state. This is radical for conservation orthodoxy that has stability baked into it, even in the name.

A more effective conservation paradigm would focus less on preserving a perceived historical balance and more on sustaining the energy flows and diversity that allow ecosystems to maintain their dynamic structure in the face of inevitable change.

It’s got nothing to do with 1788 other than at that time the energy system was relatively stable, although it had already been disrupted by 80,000 years’ worth of fire-stick management. But we’ll leave that sacred cow grazing in the paddock.

I have elaborated on the reasons for biodiversity loss in these terms at length, and even wrote a book on why rare things might not matter…

But before we reach the heretical conclusion of entropy’s brutal truth, we should review some of the alternative frameworks that at least give a nod to the Second Law.

The foundational insight of thinkers like Nicholas Georgescu-Roegen is that economic systems are not closed loops of abstract transactions, but open systems embedded in and dependent on the physical environment. Energy and matter flow through economies from low-entropy, high-quality resources to high-entropy waste. Mainstream economics largely overlooks this fact, treating the environment as an externality or assuming infinite substitutability of resources, which leads to unrealistic growth expectations. And it is easy to see why.

More making is innate, both ingrained in our biology and part of the energy dissipation, making growth foundational. Growing, creating, and being more is difficult to avoid, especially when the reality of energy dissipation can happen somewhere else as an externality to your economic action. And so, like the conservation orthodoxy, capitalism ignores thermodynamics.

So, what would and should sustainability look like through the lens of the Second Law?

Economic throughput, the material and energy used and wasted, has to sit inside ecological limits, and GDP growth cannot be decoupled indefinitely from environmental impact. Building on Georgescu-Roegen’s work, Herman Daly framed steady-state economics as a normative project with a simple target to stabilise population and resource consumption at sustainable levels. Steady-state economics treats energy, material and waste constraints as non-negotiable and shifts attention to qualitative development rather than quantitative expansion.

Similarly, ecological economics already puts the economy inside the environment and keeps the focus on energy and material flows. Mainstream models often treat nature as an externality, or lean on the idea of infinite substitutability. This framework recognises the one-way movement of low-entropy, high-quality resources into high-entropy waste through irreversible transformation. Consequently, GDP growth cannot be indefinitely decoupled from environmental impact. Economic activity is constrained by non-negotiable physical limits and the natural pace of regeneration.

Bioeconomics, emerging from Georgescu-Roegen’s thermodynamic critique and later developed through Daly and others, tightens the lens further onto the reproductive and regenerative capacities of ecosystems. How fast can forests regrow, soils replenish, fish stocks recover, or water tables recharge if they are given the chance? These questions are used to change what performance means as something closer to the natural pace of regeneration, not outputs or market efficiency. Harvest timber faster than a forest can regrow, or fish beyond the reproductive rate of a species, and collapse is the predictable outcome, regardless of price.

Bioeconomics treats these biological limits as core constraints that must shape planning from the outset, and it calls for policies and practices that mimic natural systems in their circularity, resilience, and adaptive feedback loops.

Both ecological economics and bioeconomics are intellectually honest because they begin with finite energy, irreversible transformations, and ecological interdependence, rather than abstracting them away. They at least give a nod to thermodynamics. While not politically dominant, they provide rigorous, systems-aware alternatives to the growth-centric paradigms of conventional economics and remain crucial to any sustainable long-term vision.

What they tell us is critical.

True sustainability, aligned with physical laws, requires a fundamental shift in thinking from trying to stop degradation to intelligently managing the inevitable increase in entropy.

This means designing human systems to operate primarily within Earth’s daily energy budget, mainly solar radiation and its derivatives, rather than depleting ancient reserves. It requires embracing dynamic equilibrium rather than static balance and building flexibility, redundancy and adaptability into our systems to accommodate constant change.

A physics-aware sustainability strategy would focus on three key principles:

1. Living within current energy flows rather than stored ancient energy;

2. Designing for constant change and adaptability rather than rigid stability; and

3. Actively regenerating natural systems that effectively dissipate and process energy flows.

There is an acceptance here that entropy will always increase, but recognises that human choices can shape the speed, pattern, and consequences of that increase.

The goal becomes not zero impact, which is thermodynamically impossible, but rather developing systems that increase entropy at rates and in patterns that Earth’s systems can accommodate while maintaining conditions conducive to complex life.

It is hard to state just how radical a shift this is from orthodoxy. Also how extremely unlikely it is to gain any traction in capitalist economic systems.

But we should state it as a premise anyway.

Truly effective environmental policy should acknowledge that sustainability does not mean halting entropy, but rather managing its rate and distribution within the biophysical limits set by Earth’s solar energy income.

This is a radical reframe of the sustainability debate to align it with thermodynamic and ecological reality. Rather than chasing the illusion of zero-impact or perpetual equilibrium, or even some nominal ecological state in centuries past, it recognises that all complex systems necessarily produce entropy as they transform energy and materials.

The key insight here is that the goal should not be to eliminate entropy because that is impossible. Instead, the goal is to optimise how and where it occurs, to sustain the planetary conditions that support complex, adaptive life.

By rooting environmental policy in Earth’s daily solar energy budget—roughly 174,000 terawatts received by the planet, of which only a fraction is usable by ecosystems—it imposes a clear and physical ceiling on what is feasible. This is a critical correction to mainstream development models that either ignore energy limits or assume substitution and efficiency gains can overcome them. Solar energy is the primary engine of ecological regeneration, from photosynthesis to climate regulation, and aligning human activity with this budget is a rational and biophysically grounded principle.

But it’s counterintuitive if you’ve been trained by an economy that treated fossil energy as an unlimited cheat code.

And it reframes what we mean by sustainability.

We don’t mean to keep things the same or even going forever. The job is to design social and economic systems that dissipate energy and increase entropy without automatically stripping the biosphere of the nutrient cycling, biodiversity maintenance, and climate regulation that keep it liveable.

The hard part is implementation because the constraints are spatial and temporal. Which activities can be sustained where, and for how long, given local energy flows and ecosystem resilience?

This thermodynamic framing heightens the case for environmental stewardship.

A simple critique of the mainstream sustainability narrative is that it smuggles in technological determinism and an economically linear storyline.

We invent our way out and somehow overpower the fossil fuel incumbents, the political inertia of nation-states, and the rebound effects of economic growth. In a blink, decarbonisation arrives as a technical fix without the necessary political, cultural, and economic transformations.

Critics might also argue that solar panels, wind turbines, and batteries lean hard on critical minerals like lithium, cobalt, and rare earths. Each have critical deposits concentrated in politically unstable or environmentally fragile regions. The mining, processing, and global trade required raise environmental justice issues and can replicate, or even intensify, the extractive dynamics associated with fossil fuels.

And the assumption that demand can be met by swapping inputs misses the intermittent, diffuse, and infrastructure-intensive constraints of renewables. They also come with different but equally challenging spatial, temporal, and material bottlenecks as fossils.

Socially, the transition can deepen inequality unless it is explicitly designed to be just. Job losses in fossil fuel sectors, rising energy prices during the transition period, and weak support for affected communities can produce backlash and political polarisation.

The worry, then, is governance.

Without robust mechanisms for inclusion, transparency, and democratic control, the energy transition risks becoming a technocratic project run by elites and corporations—rather than a genuinely transformative movement grounded in ecological limits and social justice. In short, the transition is essential, but the counterpoint insists it cannot be a green version of business-as-usual. It has to be a rethinking of energy, equity, and ecology.

This is all true.

The billion or so people who live in the Global North are in thrall to any option that maintains business as usual because we are good with it. Even the critics approach sustainability with a first-world mindset, assuming it is possible, were it not for a few political, social, and technical barriers.

But here is the thing.

If human actions comply with the second law of thermodynamics, then sustainability is impossible.

Humans are part of the universal tendency to degrade concentrated energy and increase entropy. Just like microbes breaking down organic matter or forests absorbing and reradiating solar energy, humans are an agent of energy flow, only vastly more powerful and accelerated by technology. Every breath we take, every meal we eat, every building we erect or car we drive, converts energy into more disordered, less usable forms. There is no way around it. Being alive means participating in the increase in entropy.

Sustainability, therefore, cannot mean stopping or reversing this natural process; it can only mean modulating it.

Sustainability, when properly understood, is about shifting how we increase entropy. Instead of explosively depleting long-stored, low-entropy fossil fuels in a few centuries, causing massive ecological and atmospheric disruption in the process, we can choose to use energy sources like sunlight, wind, and biological cycles, which already enter the Earth’s systems constantly and which naturally increase entropy at a manageable rate. It’s about living within the existing energy flows that Earth’s systems can absorb and reprocess, rather than digging deep into ancient reserves and overloading the system’s capacity.

Entropy will always increase, but the speed, scale, and side effects of that increase can be shaped by human choices.

Sustainability should not be about defying thermodynamics; it’s about working with it to build systems that are resilient, adaptive, and that spread energy more gradually and harmoniously. Absolute stasis is impossible, but intelligent moderation is not only possible, it is necessary if we want to maintain a complex civilisation without collapsing the natural systems we depend on.

Reducing carbon emissions, protecting biodiversity, conserving water, promoting renewable energy, and building circular economies are crucial and commendable efforts. However, sustainable practices like organic farming, renewable energy harvesting, or reforestation, still involve ongoing energy use, resource transformation, and ultimately contribute to the gradual spread of entropy. They simply do it more slowly and within the regenerative capacity of Earth’s systems.

The danger is that when sustainability is sold as a return to a static, balanced harmony with nature, it sets unrealistic expectations. Nature itself is dynamic, constantly balancing on the edge of growth and decay, construction and destruction.

Truly sustainable strategies would acknowledge this and build resilience into systems, accepting ongoing change, and focusing not on preventing entropy, but on smoothing, slowing, and redirecting its inevitable increase in ways that preserve living opportunities for as long as possible.

How could this be done?

A physics-consistent version of sustainability would start from the recognition that energy degradation and entropy production are unavoidable.

The goal would not be to preserve a static balance, but to manage the flows of energy and materials so that ecological and social systems can remain adaptive, resilient, and regenerative over long periods. The core principle would be to operate within the daily and seasonal influxes of energy, instead of relying on tapping ancient fossil or mineral reserves at a much faster rate than they are replenished. This means maximising the use of renewable energy, enhancing soil fertility naturally, cycling water wisely, and building infrastructure that is durable, repairable, and recyclable; all designed to work within the rhythms of natural inputs and outputs.

A physics-consistent version would emphasise building systems that are open, flexible, and capable of dynamic equilibrium, rather than rigid or overly engineered solutions that assume a stable environment. Since entropy means that all systems will eventually break down or change, sustainable design must assume disruption and embed redundancy, diversity, and modularity. For example, decentralised energy grids, mixed-crop agriculture, local food webs, and distributed water systems would all be more ‘entropy-aware’ approaches because they accept and adapt to variability rather than trying to impose a fragile order.

Finally, a physics-consistent strategy would focus on regenerating and expanding the capacity of Earth’s natural forests, soils, oceans, and the atmosphere. These entropy buffers which absorb, process, and recycle energy and material flows are the natural mechanisms by which Earth smooths the energy inputs from the sun and maintains a liveable environment. Rather than just reducing harm, the goal would be active stewardship of systems that naturally handle entropy at the planetary scale.

In short, the real sustainability strategy would be:

• Live within current energy flows, not stored ancient energy.

• Design for constant change, redundancy, and adaptability.

• Actively regenerate natural systems that dissipate and absorb energy.

• Accept that entropy will always increase, and focus on managing how it increases.

A thermodynamic reframing of sustainability forces a cleaner kind of honesty about the objective. We’re not trying to stop the universe’s drift toward disorder because that is impossible. Instead, we’re negotiating the terms of our participation in entropy’s march.

The conventional sustainability narrative of green growth and technological salvation with some rare species conservation thrown in for good measure, can read like a polite attempt to have our thermodynamic cake and eat it too.

Sure, we can keep burning through Earth’s ancient energy stores like reckless heirs squandering an inheritance. Or we can learn to live within our planetary allowance, with some grace. And that shift from an energy transition story to an energy conservation ethic may be the deepest cultural transformation since the Agricultural Revolution.

It asks us to redefine progress itself, moving from the industrial logic of more, faster, bigger toward the art of thriving within natural limits. A pivot to a more sophisticated relationship with the physical world that sustains us is a magnificent human ambition.

Coming Soon

Upstream, those granules become yield. Downstream, they become runoff. Today forty ships and tomorrow there’s another forty.

This is the quiet machinery of modern food. Our system runs on fertiliser, whether we think about it or not.

The Hard Number

Industrial nitrogen is one of the quiet load-bearing pillars of modern life. Based on 2024–2025 production figures roughly 112 million metric tonnes of nitrogen nutrient (N) per year is manufactured which is roughly ~450 million tonnes if you count the full commercial product weight.

Fertiliser is primarily handled as a high-volume, low-value commodity, which means the logistics are heavily optimised for cost and moisture protection. Roughly 85% of all fertiliser is shipped in bulk.

Just to move one day’s worth of global nitrogen fertiliser products as total product weight, translates to roughly

The majority of solid fertilisers (Urea, Potash, Phosphates) are transported in large ocean vessels, typically ranging from 15,000 to 45,000 deadweight tonnes (DWT). These Handysize or Handymax bulk carriers are easily handled at fertiliser ports and carry the cargo poured directly into the ship’s holds.

Framing the hard number

So the mental image is not a few giant vessels now and then. It’s 40 bulk carrier loads every day, on average, just to move one day’s worth of global nitrogen fertiliser products.

This means that the real system lives in ports, rail, barges, blending plants, bags with liners, hatch covers, insurance, and corrosion control. High-volume, low-value commodity logistics are about bulk, optimised for cost, and protected obsessively from moisture because many nitrogen fertilisers are hygroscopic and cake when damp.

And then with fertilisers there is the awkward category of ammonium nitrate, which is regulated as an oxidiser with explosive risk. That comes with routing, storage, and insurance point. The chemical nature of the product shapes the physical network that can carry it.

Inland transport to move bulk material from ports to rural blending plants relies heavily on river barges as the most cost-effective method and unit trains where the entire train is dedicated to a single product.

In the rail industry, fertiliser moves in a covered hopper car that holds roughly 100 tons of product. For the cargo of a 30,000 tons Handymax, you would need exactly 300 cars.

Then the physical constraint shows up. A standard hopper car is approximately 60 feet (18.3 meters) long including the couplers. Multiply that out and the single 300-car train runs to over 3 miles long which is way beyond standard rail infrastructure length and weight ceilings. So this load is usually split into three separate unit trains of 100 cars each.

In practice, offloading a Handymax doesn’t happen all at once. Ports run a unit-train rhythm. Most facilities have enough track space to stage 100 to 110 cars at a time, load them, clear them, repeat. And the clock is set by the belt. To move 30,000 tons from the ship’s hold into railcars typically takes 24 to 48 hours of continuous conveyor operation.

Each 100 car train is a mile long (close to 2 km) and weighs 13,000 tons and takes at least 2 locomotives to pull it. Once the train is up and running the locomotives burn roughly 20 litres per km for a train already at speed on flat ground.

Behind the hard number

Some basic nitrogen.

Plants need nitrogen to grow. The atmosphere is mostly nitrogen gas, but it’s locked up as N₂, which most crops can’t use directly. Nature’s workaround is slow as microbes fix nitrogen, lightning helps a bit, and legumes pull tricks with symbiotic bacteria. The natural flow is real, but limited.

The industrial workaround is blunt and brilliant. The Haber-Bosch process takes nitrogen from the air and combines it with hydrogen to make ammonia. The most convenient source of hydrogen for this industrial process is natural gas. That means industrial nitrogen is not just a chemical story. It’s an energy story.

Once you have ammonia, you have the precursor for almost all nitrogen fertilisers including urea, ammonium nitrate, UAN solutions, and more. The nutrient numbers are easy to confuse because nitrogen can mean the nitrogen content (N) or the total mass of the product carrying that nitrogen. A tonne of urea is not a tonne of nitrogen. The difference matters because the ships, pipelines, warehouses, and emissions move the whole product, not just the nutrient.

The main constraint to name up front is the energy constraint: if your nitrogen comes from natural gas, you inherit natural gas supply, price, geopolitics, and emissions. That constraint doesn’t care about slogans.

The Invisible System Behind the Visible Story

The visible story is food. There seems to be plenty of it for those of us who get sustenance from the fridge.

But for the majority of people daily food provisioning still runs through informal and traditional channels (open markets, small family shops, street vendors) and through own-production, especially for fresh foods. India plus developing Sub-Saharan Africa already implies about 2.6 billion people in regions where supermarkets are unlikely to be the majority food source for most households. Once you add large parts of South and Southeast Asia beyond India, and many low- and lower-middle-income countries, a reasonable global estimate is that the number is comfortably above 3 billion and plausibly in the 4–5 billion range.

Not surprisingly, when someone says we need to feed the world, the conversation jumps to crops, diets, waste, and farming practices. All important. But the enabling substrate is often industrial nitrogen.

Synthetic nitrogen supports nearly 50% of the world’s food supply and it means modern population and modern yield levels are partly a reflection of fossil energy converted into fertiliser.

It creates at last four core dependencies.

Natural gas supply and price. If the nitrogen for fertiliser is derived from gas, then gas scarcity, price spikes, and sanctions echo into fertiliser price, then into planting decisions, then into food prices. The chain is long, but the coupling is real.

Industrial concentration and geopolitical clustering. Fertiliser production is concentrated in China, India, Russia, and the United States, together accounting for over half of global production. Concentration is an efficiency story and a fragility story. If you want cheap tonnes, you cluster near feedstock and infrastructure. If you want resilience, you diversify. The system tends to choose cheap.

Logistics and handling reality. Because fertiliser is low value per tonne relative to the cost of moving it, the system becomes a logistics game of bulk shipping, barges, unit trains, blending plants, storage constraints, moisture protection, and the unglamorous work of keeping product dry and flowing. Storage and port constraints are physical, not rhetorical.

What’s missing from the popular story is that most sustainable agriculture narratives talk as if nitrogen is a dial we can turn without disturbing the machine that makes it. But nitrogen is not a policy memo. It’s an industrial metabolism.

And there is a deeper pattern

Industrial nitrogen sits at the intersection of two stories. One is about nature’s limits in soil fertility, nutrient cycles, ecosystems. The other is industrial mastery of chemistry, scale, and engineering.

Haber-Bosch is one of the few technologies that genuinely deserves the word civilisational. It is also a perfect example of why progress narratives become theatre. Once a system has been built around a fossil-powered input, institutions start defending the input’s continuity as if it were a law of nature.

Governments want food price stability. Fertiliser producers want predictable demand, and they’ll defend asset lifetimes. Farmers, often margin-constrained, can’t gamble on yield. Investors tend to prefer incremental retrofits—carbon capture, “blue” ammonia—over uncertain overhauls. And climate commitments, in turn, encourage re-labelling pathways as blue or green to preserve industrial continuity.

So the comforting story persists. We’ll keep the yields, keep the scale, swap the energy source, and everything will be fine.

Sometimes that story will be partly true. But it competes with the constraints of energy density and infrastructure inertia. For example, green nitrogen requires vast renewable electricity, electrolysers, new ammonia handling capacity, and time. Meanwhile, the existing machine is already built, already financed, and already feeding people.

The trap isn’t malice. It’s that complex systems prefer continuity, and institutions prefer narratives that make continuity sound virtuous.

Back to the Front

Those pale granules in the ship’s hold don’t look like a civilisation. They look like cargo. But the rhythm played out in dozens of ships, trains and barges every day is our food system quietly admitting what it runs on.

Air, yes. And also gas, steel, ports, and the small, steady agreement to keep the machine fed.

Being a Mindful Sceptic

A mindful sceptic uses curiosity and critical thinking to rigorously question ideas and demand evidence, while being aware of what matters, when it matters, and how to avoid the trap of cynicism.

• Track the constraint, not the slogan. Start by inventorying the energy, feedstock, water, steel, ports, and time that make up the process. If the input is natural gas, don’t let the story pretend it’s mostly air.

• Separate nutrient from product mass. When someone cites nitrogen, ask if they mean nitrogen nutrient (N) or total fertiliser product. Ships move product mass. Plants care about nutrient.

• Follow the upstream dependency chain. Natural gas → hydrogen → ammonia → urea/ammonium nitrate → logistics → on-farm application → yields → runoff/emissions. If a proposal touches only one link, assume displacement elsewhere until proven.

• Beware efficiency narratives. Cheaper fertiliser often leads to more use, not less. That’s not a moral judgement. It’s basic rebound. Lower the unit cost of nitrogen, and you tend to expand nitrogen-intensive production unless something else constrains it.

• Ask what must stay true. For green ammonia to matter at system scale, what has to stay true about electricity costs, electrolyser deployment, storage, shipping, and farmer affordability? If the answer is a lot, downgrade certainty.

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Mindful Momentum

Do a nitrogen check on one meal this week.

Pick a dinner you eat often. Write down the main ingredients and for each one, ask:

• Is it nitrogen-intensive (grains, oilseeds, industrial vegetables, feedlot meat)?

• Where did the nitrogen likely come from (legumes/biological fixation, manure, or synthetic fertiliser)?

• Where does the nitrogen go after you eat it (sewage system, landfill, waterways)?

• What would have to be true for that nitrogen to “cycle” rather than leak?

Don’t turn it into virtue. Turn it into perception.

Key Points

• The machinery and the scale. Industrial nitrogen turns atmospheric nitrogen into fertiliser mainly via Haber–Bosch, typically using hydrogen derived from natural gas. Output in 2025 was ~110–115 million tonnes/year as nutrient N, and ~450 million tonnes/year as total product mass.

• The logistics and the energy coupling. At ~450 million tonnes/year, that’s ~1.23 million tonnes/day—roughly 40 bulk carrier loads per day at 30k tonnes each. And it’s welded to energy, specifically ~4% of world natural gas use and ~1.5% of global CO₂ emissions.

• The transition story and the sceptic’s posture
  Green ammonia is the growing storyline, but today’s share is stated as <2% (as of 2025), with the binding constraint being infrastructure and energy, not ambition.

• The institutional theatre is predictable. Continuity narratives win because they stabilise food prices, protect assets, and simplify politics—so a mindful sceptic tracks constraints, checks rebound, and refuses orphan numbers.

We’ve trained ourselves to treat consumption as a proxy for worth. That makes economic contraction feel like moral failure filled with shame, status loss, social fracture. But dignity doesn’t have to ride shotgun with GDP. Across cultures and crises, people have preserved meaning and mutual obligation under constraint, especially when sacrifice is framed as shared, and the basics are protected. The task now is to separate dignity from throughput, and build simpler lives that don’t read as deprivation.

In September 1989, I was waiting for housing to be arranged as part of my appointment as a lecturer at the University of Botswana. It meant a lengthy stay at the Gaborone Sun Hotel in Gaborone, where I lived for over three months. Sundowners by the pool, tennis under floodlights, and endless dinners in the restaurant sound idyllic until it’s been going on for weeks.

My extended hotel stay was an early lesson in ‘Africa time’ and made me curious about folk who choose to live permanently in such places. What I would have given for beans on toast.

After what seemed like an eternity, I was allocated a flat in a new block a short walk from the Ngotwane River, more strictly, the dry riverbed opposite what is now the Riverwalk Shopping Mall. Back then, it was the municipal waste management facility and just a few kilometres from the Tlokweng border post with South Africa.

Recall that these were turbulent times in Southern Africa. Apartheid was clinging on, and Nelson Mandela was still imprisoned on Robben Island. Incursions into neighbouring countries by the South African military were happening to root out insurgents. At checkpoints in peaceful Botswana, security personnel waved AK-47s.

But it was also the beginning of an economic boom.

From 1980 onward, Botswana’s economy grew at an average annual rate of around 5–6%, making it one of Africa’s most celebrated development success stories. This growth was primarily powered by the discovery and export of diamonds. The industry was managed through a strategic partnership with the De Beers Group, founded in 1888 by Cecil Rhodes. The Botswana government reinvested mineral revenues into national infrastructure, education, and health services, but such were the revenues and fiscal discipline, the country accumulated substantial foreign reserves. The result was a dramatic transformation from one of the world’s poorest nations at independence in 1966 to a middle-income country within a few decades.

Among several initiatives in the 1990s, the government established the Pula Fund, a sovereign wealth fund, to save surplus revenues and help buffer against fluctuations in commodity prices. The policy environment, combined with an efficient public sector and relatively low corruption levels, earned Botswana high marks from international financial institutions, such as the IMF and the World Bank. All was rosy for the future.

When I arrived, Botswana had become a model for prudent economic governance in the region, and I benefited from their investment in education.

When I checked into the Gaborone Sun in 1989, there were three hotels in the town of 133,000 people. Today, there are 65 hotels, offering a diverse range of accommodations to cater to various preferences and budgets, including several five-star establishments, reflecting the city’s development into a regional business and tourism hub. The country has grown, and Gaborone from a dusty border post to a modern city with over 300,000 residents and a place unrecognisable as the British protectorate it once was.

Growth has slowed somewhat in the 21st century, and Botswana remains heavily reliant on the diamond sector, which accounts for over 80% of export earnings and a large share of government revenue. Efforts to diversify, especially into tourism, manufacturing, financial services, and agriculture, have seen only partial success. Moreover, income inequality remains high, youth unemployment is a growing concern, and the economy’s informal sector has expanded without adequate policy support.

But it’s difficult to deny the progress.

But what happens if the bottom falls out of the diamond market?

A sudden collapse in the diamond market, let’s say by plummeting global demand, synthetic diamond disruption, or geopolitical shifts, would hit Botswana like a dropped engine block. Export income would fall fast. The trade balance would weaken, the Pula would devalue, and inflation would follow as imports become more expensive.

Then the second-order effects show up. Government services tied to diamond revenues, particularly the larger infrastructure, education, and health projects, would run into hard budget limits, forcing spending cuts or deficits. Jobs in mining and the industries that orbit it, from transport to services, would be on the line too.

That’s how a commodity shock turns into a socioeconomic shock.

In the short term, Botswana’s foreign exchange reserves and low public debt allow it some room to absorb shocks; there is a buffer buys time. Over the long run, a diamond collapse would force acceleration into tourism, beef exports, financial services, and manufacturing. That shift needs strategic investment and policy support, and it has been tried repeatedly with mixed results.

Botswana does have real advantages here thanks to a relatively strong institutional base, low corruption, and regional diplomatic credibility. Those things help attract investment. But if the transition isn’t managed, the loss of diamond revenues could widen inequality, push urban unemployment up, and start to fray the social contract that has historically anchored Botswana’s political stability.

Botswana’s national identity and international reputation are tightly bound to its post-independence success story. Diamonds became the symbol of self-reliance and national pride. A sudden market collapse would put that collective dignity at risk by creating economic dependence on external aid, triggering mass unemployment, and undermining the developmental gains so closely associated with Botswana’s sovereignty.

And the damage wouldn’t just sit on a balance sheet. Losing jobs, services, and opportunity, especially for young people, can curdle into disillusionment and marginalisation. Mining towns like Jwaneng or Orapa, built around the diamond economy, could face economic ruin and displacement. For many citizens, the psychological hit could run deeper than the material one. The loss of dignity that comes with being unable to provide for your family, or contribute in a way that feels meaningful, is debilitating at best.

All of this could intensify social tensions, widen class divisions, and weaken the spirit of unity and moderation that has characterised Botswana’s politics. It would put heavy pressure on social cohesion and tradition, and on the dignity that people are rightly proud to possess.

Yet dignity is not solely defined by economic outcomes. Botswana’s history of transparent governance, rule of law, and peaceful democratic transitions gives it an advantage over many nations in responding with grace and determination to adversity.

The country’s strong civil service, cultural emphasis on dialogue (kgotla), and prior experience with economic planning could help morph the national narrative to adaptability, innovation, and collective effort. In this light, dignity can be sustained not by avoiding hardship, but by how a nation responds to it.

Botswana has a good chance of riding out a diamond market collapse. However, the future could be about contraction as easily as the last few decades have been about growth.

So here is the first premise for dignity under constraint…

Economic contraction is typically associated with loss of dignity and social cohesion.

Rising unemployment, wage stagnation, and business closures are the usual tells of economic contraction that can lead to recession, or worse. And the damage isn’t just financial. It’s psychological because employment isn’t only a paycheck. It’s also identity, purpose, and social standing.

It’s more than the money.

When people lose their jobs or live in long stretches of financial insecurity, the real hit is to self-worth and social dignity. Shame creeps in. Marginalisation follows. Personal agency shrinks.

And when resources feel scarce, the social fabric tightens in the wrong ways. Trust can turn into resentment. People look for someone to blame, or they disengage altogether. Inequality becomes sharper and more visible, and the story of shared prosperity gets replaced by fragmentation and survival. Communities that once ran on mutual support can start to show rising crime, political polarisation, and mental health crises; all classic signs of social cohesion eroding.

Nations with strong social safety nets, inclusive civic cultures, and responsive institutions can buffer the effects to a degree, and even emerge with renewed solidarity. But in general, the link between economic decline and the loss of dignity and social cohesion is supported both by historical patterns and contemporary social research.

For example, in the US and Europe, the economic collapse following the 1929 stock market crash led to widespread unemployment that peaked at around 25% in the US, with millions of people losing not only their jobs but also their homes and savings. Breadlines, homelessness, and the infamous Dust Bowl migration fostered a widespread loss of personal dignity. Formerly self-reliant workers found themselves relying on public relief or informal charity, often with deep shame. At the same time, trust in institutions plummeted and social unrest grew. In parts of Europe, the depression’s destabilising effects contributed to the rise of authoritarian regimes, as people sought strong leadership amid economic despair.

Greece’s prolonged recession after the 2008 global financial crisis saw GDP fall by 25%, with youth unemployment rising above 50%. Austerity, tied to bailout loans, landed in ordinary life as pension cuts, tax hikes, and shrinking public services. Dignity eroded in familiar ways. Professionals took menial work or left the country. Public health worsened. Social cohesion cracked as protests and riots spread, suicides spiked, and trust in both the government and the EU fell sharply. The political system shifted with it, marked by the collapse of traditional parties and the rise of populist movements.

The decline of manufacturing in places like the U.S. Midwest and Northern England produced a slower kind of damage. Factories closed, incomes fell, and the social structure weakened because it had been built around stable, unionised work. For many men, the traditional backbone of industrial labour, the loss landed as an identity shock as much as an economic one. Over time, the fallout compounded into intergenerational poverty, opioid epidemics (notably in the U.S.), and declining civic participation.

And when people feel abandoned, politics shifts. That same mood has been linked to support for Brexit in the UK and the rise of populist politics in the U.S. that are both signals of social cohesion fraying.

These patterns are real, but they are not inevitable. There are well-documented historical examples of societies maintaining or reinforcing their core values during times of material constraint, particularly when those values are deeply embedded and culturally resilient.

Historical examples exist of societies maintaining core values during material constraint

Economic hardship, war, or environmental scarcity do not automatically erode a society’s foundational values. In fact, such conditions can clarify and strengthen collective ideals, particularly when those values are tied to identity, survival, or a shared moral code. When societies have strong cultural narratives, religious frameworks, or civic traditions, these can act as stabilising forces that persist even when material abundance is lost. Values like solidarity, perseverance, honour, and communal responsibility have historically endured and, at times, flourished under duress.

Societies with rituals, oral traditions, and ethical systems often lean on them in hard times. They’re how norms get reaffirmed when the material story is going the wrong way. When leaders frame loss in moral or patriotic terms, rather than as individual failure, people are more likely to rally around shared sacrifice. And sometimes constraint pushes a reset in what “counts.” Stronger mutual aid networks. Wealth redefined in terms of relationships or wisdom. Even a revival of communal land management.

Even with bombings, rationing, and severe shortages, British society during World War II (1939–1945) held its core values and, in key ways, tightened them through social solidarity, stoicism, and democratic commitment. The Blitz spirit wasn’t just a slogan. It showed up as mutual aid in bomb shelters and in civil defence efforts. Rationing held because it was seen as fair, equitable, and necessary. Rather than fraying under pressure, national identity and social cohesion were reinforced, helping set the stage for post-war reforms like the creation of the National Health Service and the welfare state. Those values endured because they were continually reaffirmed through shared narratives, leadership, and collective sacrifice.

Facing extreme material deprivation, forced displacement, and systemic violence, many Jewish communities in Eastern Europe preserved core religious and cultural values across centuries. Even in ghettos and concentration camps, people sustained ritual practices, education, and ethical codes, often clandestinely. The Talmudic emphasis on learning, mutual responsibility (tzedakah), and remembrance created internal cohesion even as external structures collapsed. Cultural memory and religious observance became tools for survival, carrying identity and values forward amid existential threat. That resilience later shaped post-Holocaust reconstruction of Jewish life and cultural continuity in diasporic communities.

The Zapatistas, emerging from one of the poorest regions in Mexico, have faced ongoing material constraints while sustaining a value system built around indigenous autonomy, participatory democracy, and resistance to neoliberal exploitation. Since their 1994 uprising, they have built alternative governance structures rooted in communal decision-making, gender equality, and anti-capitalist values. Despite economic marginalisation and political pressure, the core ideals have held through local institutions, collective farming, and educational programs. The values endure in part because they are not only argued for. They are practised daily in autonomous zones, intertwined with local identity and historical memory.

These examples suggest that core values can survive and thrive under constraint, particularly when collectively owned, continually enacted, and closely tied to a sense of identity or justice.

So what is it about modern societies in the West that are nominally wealthy, with abundant technology, services and have the ability to support basic needs?

Current conceptions of dignity and worth are excessively tied to consumption patterns

In modern capitalist systems, individual dignity and social status are frequently associated with the ability to consume through fashion, housing, technology, travel, and lifestyle branding. This is not merely about material need, but about symbolic value. What I buy and display becomes a stand-in for who I am.

Social media has intensified this linkage, as platforms serve as curated showcases of consumer choices that signal taste, success, and belonging. Consequently, my self-worth becomes entangled with my ability to participate in visible forms of consumption, creating a precarious identity rooted in economic access rather than intrinsic or communal values.

On a personal level, this consumption-centric notion of dignity affects me significantly. I may experience shame, inadequacy, or exclusion when I cannot afford or access certain goods, even if my basic needs are met. On a societal level, it fosters competition, status anxiety, and environmental degradation, as consumption becomes both a measure and a means of validation. Furthermore, it tends to marginalise those who value frugality, simplicity, or non-material forms of worth, such as caregiving, creativity, or spiritual life, which are harder to commodify or display.

Historically and cross-culturally, dignity has often been grounded in virtues like honour, integrity, craftsmanship, or social contribution. In contrast, current consumerist paradigms are relatively recent and culturally specific, shaped by marketing industries and economic models that depend on perpetual growth. I am a victim of consumerism even as I behave like one.

The overreliance on consumption to define self-worth is thus not inevitable but constructed, and potentially reversible. Alternative value systems are proposed in movements like degrowth, minimalism, and post-growth economics. These seek to re-anchor dignity in sufficiency, sustainability, and relational well-being rather than material accumulation. I could overcome nurture and do something different.

Communal and spiritual traditions offer alternative frameworks for human dignity

Many traditions, across cultures and periods, have consistently emphasised intrinsic human worth, mutual responsibility, and connection to something greater than the self. For example, Indigenous philosophies often centre dignity in relationships to land, ancestors, and community, rather than economic status or consumption. Similarly, religious traditions such as Buddhism, Christianity, Islam, and others commonly uphold all people’s sanctity and inherent dignity, regardless of their material standing, anchoring human value in compassion, humility, and shared spiritual identity.

I may be told, I consume, therefore I am, but the alternatives could provide more resilient moral structures in times of hardship. When material resources are scarce, communal and spiritual traditions can reinforce social cohesion and meaning, offering rituals, narratives, and ethical codes that affirm dignity through service, solidarity, and belonging.

As societies seek responses to inequality, climate disruption, or economic contraction, turning to these alternative frameworks can help reimagine human dignity in ways that are both enduring and inclusive. And we don’t have to look far to find them. Many are well known.

Mahatma Gandhi’s philosophy of swaraj (self-rule) and sarvodaya (the welfare of all) explicitly rejected the idea that dignity arises from wealth or consumption. He advocated for simplicity, self-sufficiency, and the moral integrity of labour, especially manual and local production. For Gandhi, dignity came from aligning one’s life with truth (satya) and nonviolence (ahimsa) and participating in community life without exploitation or excess. His symbolic use of homespun cloth (khadi) directly challenged the colonial and capitalist logics of identity through imported goods. Even today, aspects of Gandhian thought persist in India’s ethical and ecological movements, offering a value system centred on restraint, responsibility, and spiritual purpose.

Ubuntu is a relational worldview across many Southern African cultures, summarised by the phrase “I am because we are.” Dignity in Ubuntu arises from social interdependence, empathy, and mutual recognition rather than individual accumulation. Worth is located in one’s capacity to be humane, generous, and integrated within a community. This worldview resists the idea of consumption as a status marker; instead, it emphasises shared resources, communal decision-making, and the moral obligations of being human. In post-apartheid South Africa, Ubuntu was used to help frame reconciliation, justice, and social healing. Without the philosophy of Ubuntu, the Truth and Reconciliation Commission (TRC) would have been a cold, legalistic transaction, essentially a get-out-of-jail-free card, rather than the spiritual and social glue that held a fragile South Africa together in the 1990s.

Emerging in response to climate breakdown and social inequality, degrowth movements push back on the idea that more consumption automatically means better lives. They argue for a different definition of prosperity, one anchored in well-being, leisure, ecological health, and care work.

Think of it as a values shift. Philosophers and economists like Serge Latouche and Kate Raworth make the case that dignity can be revalued through sufficiency, cooperation, and ethical restraint. In practice, that shows up in degrowth experiments like Transition Towns or community economies, where value is placed on time, mutual aid, and low-impact living rather than material throughput.

The claim is that dignity can flourish inside systems that honour planetary limits and measure success in non-consumerist terms.

All this is at odds with the neoliberal growth paradigm, but by separating dignity from consumption, we can develop models of meaningful, connected lives that thrive within planetary boundaries rather than despite them. And we are going to have to find these models of meaning because scarcity is coming and with it a loss of dignity.

Political movements that ignore dignity concerns inevitably face resistance

Dignity starts with a simple idea that people have inherent worth, and they have a right to be treated with respect. It’s a core human need that cuts across culture, class, and ideology. When political movements ignore that need through humiliation, exclusion, paternalism, or exploitation, they often trigger backlash. Not because dignity is some abstract moral add-on, but because it’s a political force. When people feel dishonoured, overlooked, or dehumanised, they are more likely to organise, protest, or reject imposed authority. Sometimes that resistance is quiet, like withdrawal or non-compliance. Sometimes it’s overt, like uprisings or revolutions. Which one shows up depends on the context and how deep the violation feels.

History and the present tell us that even movements with materially beneficial aims can fail if they trample on dignity. Colonial regimes, for example, justified their rule as development or civilisational uplift, yet they provoked fierce resistance because of the indignities of subjugation and cultural erasure. The same logic appears in technocratic governance. When policy is imposed without consultation, public pushback can follow not necessarily because the policies are harmful, but because people are denied agency, voice, or recognition. In democratic settings, populist movements often gain traction by speaking to groups who feel elites have ignored or degraded their dignity.

And dignity-based resistance isn’t automatically reactionary or conservative. It can also power emancipatory change. Civil rights movements, Indigenous land struggles, feminist revolutions, and anti-austerity protests often place dignity at the centre, both as the grievance and as the goal.

The lesson is that durable, legitimate political movements have to account for more than material interests. They also have to reckon with the symbolic, emotional, and ethical dimensions of belonging, recognition, and respect. It also brings the final premise…

Models of dignified simplicity can be developed across cultural and political divides

The idea of dignified simplicity taps into a shared human intuition found across philosophical, religious, and civic traditions. A good life need not be a materially abundant one, and that self-restraint, balance, and purpose can form the basis of dignity.

Contemporary consumer culture often treats simplicity as lack or failure. Many societies read it differently. They see simplicity as integrity, harmony, and autonomy. The dignity comes from choice that is affirmed, not imposed. And it carries social and ethical value rather than stigma.

Across big cultural and political differences, plenty of traditions offer ways to name and practise dignified simplicity. In Buddhist and Taoist thought, simplicity points to clarity and non-attachment. In Christian monasticism, it links to humility and service. Indigenous knowledge systems often foreground balance with nature, communal resource-sharing, and a sufficiency ethic grounded in kinship and reciprocity. Even in modern secular settings, voluntary simplicity, slow living, and the commons revival show people reimagining well-being with fewer material demands.

These expressions can sit alongside each other and cross-pollinate. That is the point. Dignified simplicity is not a single formula. It is a flexible, intercultural ethic.

Again, we know what to do. Models suitable for transitions in modern life are possible, and many examples already exist.

Politically, the challenge is to develop enabling conditions for dignified simplicity from secure housing and universal healthcare, to food and time sovereignty. This ensures that simplicity is not conflated with deprivation.

The conversation is moving toward a cleaner question. How do high-income societies reduce overconsumption while still affirming dignity for all?

If that alignment holds, it points to a different kind of universalism. Not one built on sameness or affluence, but one grounded in shared values of care, humility, and interdependence.

The journey from abundance to constraint need not be a narrative of loss. As we’ve seen through historical examples and cultural alternatives, human dignity can not only survive but potentially flourish when separated from excessive consumption.

If the modern equation of dignity with consumption is neither inevitable nor universal, then we are at a pivotal moment of choice. The anecdotes we have examined, from wartime Britain to religious communities under persecution, from Gandhi’s philosophy to contemporary degrowth experiments, suggests that human dignity is remarkably adaptable. It can attach itself to consumption when resources are abundant, but it can also flourish through connection, contribution, and meaning when materials are constrained.

That creates a real opportunity inside the polycrisis facing humanity. If we reconnect dignity to more durable foundations like relationship, meaning, contribution, and care, we may find forms of well-being that are more resilient to the material fluctuations that increasingly shape our world. This is not just philosophical musing. It is practical adaptation to the reality of planetary boundaries.

For individuals, this means cultivating what philosopher Kate Soper calls alternative hedonism by finding pleasure and purpose in simpler, less resource-intensive activities. For communities, it means revitalising shared spaces, mutual aid networks, and cultural practices that affirm worth beyond wealth. For policymakers, it means designing transitions that protect fundamental needs while creating conditions where dignified simplicity becomes viable for all.

When I lived in Botswana through the 1990s, I witnessed a society navigating the delicate balance between newfound prosperity and traditional values. The Batswana, should their diamond economy falter, possess cultural resources to navigate this transition. They can lean on their traditional kgotla system of community dialogue, their history of prudent resource management, and their relatively recent memory of simpler living before the diamond boom.

The richest material societies in history have not necessarily been the most dignifying for all their members. As we face ecological limits, we have the opportunity to build societies that may consume less but distribute dignity more justly and durably. This is not a utopian fantasy but a practical imperative, drawing on humanity’s remarkable capacity to create meaning when faced with constraint.

A Systems Spine turns Insight Vault fragments into a coherent sequence. Each one starts with posture, passes through constraints and incentives, and ends with practical implications. The aim is legibility under pressure. Track ecology, energy, mass-balance, and incentives and the world stops looking so mysterious.

Most modern arguments about progress smuggle in a quiet assumption that energy will stay cheap enough, dense enough, and scalable enough to keep everything else smooth and everybody happy. Policy fights then become theatre about distribution, leadership, and moral intent.

This sequence through The Mindful Sceptic Insight Vault takes a colder path. It treats civilisation as an energy conversion project consistent with thermodynamics with culture tagging along, then follows the consequences as the fossil fuel pulse thins out.

The result could be, but need not be, an apocalypse story. Instead, it is a boundary story, a narrative that identifies the hard physical and thermodynamic limits of energy availability. Once you see the boundary, you stop confusing gross output with resilience, and you stop mistaking surplus with safety.

Let’s start with the driver.

Net energy and thermodynamic limits set the feasible range for population and complexity, while culture and institutions mostly shape how we move within that range.

Energy is not just another input. It is the input that turns everything else into action, from food to freight to fertiliser to finance. When energy is abundant and of high quality, systems can afford slack, redundancy, and experimentation, which looks like innovation and good governance. The opposed orthodoxy over-credits ideas and leaders, as if better stories can outrun biophysical limits.

This explains why the crucial question is not energy supply but net energy, which forces us to consider EROI.

As EROI declines, the net energy available to run society shrinks, and stability erodes even if money, policy, and optimism are poured on top.

EROI is the tax you pay to get energy. When the tax is low, you can fund complexity like hospitals, universities, and long supply chains. When the tax rises, more effort is spent just to keep the lights on, and less is left for maintenance, buffers, and social cohesion. The opposed orthodoxy assumes that policy and innovation can substitute for physics, but they still need surplus energy to execute.

Which forces the next step because the biggest historical EROI subsidy was fossil fuel, and it set what we see as normal.

High-EROI fossil fuels temporarily raised human carrying capacity far above pre-industrial baselines, and declining availability pulls that capacity back down despite attempts at energy substitutions.

This is the fossil fuel pulse in plain terms. Cheap net energy lets you feed more people, move more goods, and build more infrastructure than the local ecology would otherwise permit. Naturally, these people make more people. Substitutes often arrive with lower net yield, more material complexity, and new bottlenecks, which means the carrying capacity story does not disappear, it just moves on a little. The opposed orthodoxy treats ingenuity as a permanent escape from Malthus.

That contraction pressure then collides with the growth mandate, which brings entropy into the frame.

Growth driven by material throughput increases entropy and fragility, so attempts to grow away from risk often amplify the long-term risks.

Expansion is usually sold as stabilisation. In practice, it tends to extend supply chains, deepen dependencies, and raise the maintenance bill, while also loading more waste into limited sinks. The system can look robust right until a constraint tightens and the cascades begin because there is more to fail and less slack to absorb shocks. The opposed orthodoxy treats growth as a universal solvent.

This sets up the key misread in public discourse, where we treat volume as resilience, especially in food.

Fossil-fuelled food abundance can be energetically loss-making and structurally brittle, so high output does not guarantee reliable access.

A surplus measured in tonnes is not the same thing as a surplus measured in resilience. If the system depends on fuel, fertiliser, chemicals, refrigeration, and global logistics, then its apparent plenty is conditional on uninterrupted energy flows and stable trade. When those conditions wobble, the shelves can empty fast even if farms are still producing. The opposed orthodoxy assumes that aggregate output equals security.

So the final constraint becomes unavoidable, because what we call sustainability usually assumes the throughput can persist without cumulative degradation.

Industrial economies cannot maintain current throughput indefinitely because entropy, finite stocks, and limited sinks guarantee cumulative degradation that sustainability narratives tend to omit.

Efficiency helps at the margin, but it does not remove the maintenance bill of a high-throughput system, or the reality that waste and wear accumulate. A policy frame that promises permanence is selling comfort, not a mechanism. The opposed orthodoxy calls this pessimism, yet the harder error is pretending the thermodynamic ledger can be balanced by better messaging.

In visual summary…

And so to the conclusion, where the practical move is to stop planning from an infinite-throughput baseline.

The chain lands in a simple reframing.

Fossil fuels acted like a civilisation-wide subsidy, not just a convenient fuel source, and EROI is how you see the size of that subsidy. As it declines, carrying capacity tightens, growth becomes a fragility amplifier, and surplus stops being a reliable proxy for security.

The interpretive move is to treat net energy as a ceiling and design for contraction, substitution limits, and buffer building, rather than betting on smooth continuation.

That does not tell you what to believe. It tells you what cannot be true at scale.

Coming soon

Curated Insights, deeper Explainers, monthly live catchups, and a moderated forum for thinking clearly about a humane population contraction—without coercion, denial, or collapse.

Emails filled with graphs, tables, and projections. Charts mapping temperature rises, biodiversity loss, or democratic backsliding with each data point defensible and peer-reviewed. Every communication adds another brick to an already towering edifice of evidence.

Only the edifice changes nothing.

It sits there, magnificent in its precision and detail, ignored by the very minds it was built to convince.

This is one of modernity’s strangest delusions.

We think that truth will come out simply as a matter of accumulation, and that minds will shift when the evidence reaches some critical mass. I have believed this for decades.

I wrote a book in 2011, Missing Something, suggesting that we reclaim innate awareness and interconnectedness to get back in contact with nature, apply systems thinking to resource management, and use scientific inquiry to live off the interest of natural capital rather than spending the principal.

In this, I assumed that evidence was the obvious route to awareness.

The reality is far more uncomfortable.

Core idea

The conventional wisdom sounds unassailable.

Get the scientists to gather more data, cite better studies, and build stronger cases. Then, if someone rejects all this evidence, it must be because they haven’t seen enough of it yet.

If the climate sceptic persists, send them another report.

If the vaccine hesitant remains unconvinced, share more research.

If the policymaker ignores the inequality data, commission a bigger study.

This faith in evidence runs deep because it offers moral clarity. Truth-seekers arm themselves with facts against ignorance and bias because science is there to stand up to superstition, and reason can conquer prejudice.

It is a seductive story told ever since the Enlightenment because it makes the solution simple… more research, better communication, clearer graphs to parade the evidence.

Counterpoint

But here is what actually happens.

When data contradicts a cherished belief, cognitive dissonance kicks in like an immune system rejecting foreign tissue. The mind doesn’t weigh evidence neutrally. It searches for flaws, discounts sources, and finds alternative interpretations.

It protects the story it has already told countless times about itself and the world.

Consider the climate debates of the past two decades. Mountains of evidence from thousands of scientists covering temperature records, ice core data, atmospheric measurements, and ecosystem disruption. And yet no real change in behaviour and no change in the trajectories of the climate metrics.

The evidence didn’t fail because it was weak. It failed because it landed in minds already committed to different narratives about progress, freedom, and human nature.

The same pattern repeats across domains.

Health experts pile on evidence about diet and exercise while obesity rates climb. Economic data shows inequality rising while voters support policies that entrench it further. Democracy researchers document authoritarian drift while populations cheer strongmen.

More evidence doesn’t break through. It bounces off.

There is a way to change minds and it’s ironic. What changes minds isn’t more data but different stories.

The successful persuader knows this instinctively. They don’t lead with statistics. They lead with stories that make the statistics feel inevitable.

Think of the communications that actually shift attitudes. They start with situations people recognise, emotions they feel, problems they experience. The evidence comes later, as confirmation of what the story already suggested. The narrative does the heavy lifting. The data provides the details.

What this means is that evidence is part of a larger system that includes emotion, identity, and meaning.

Facts need frames.

Data needs drama.

Statistics need stories that make them matter.

Thought Challenges

Analyse your own resistance... Recall the last time someone presented evidence that challenged a belief important to you. Notice what your mind did first. Did it engage with the data neutrally? Or did it immediately search for flaws, alternative explanations, reasons to dismiss? Track that process without judgment. Watch how narrative protects belief.

Study successful persuasion... Find an example where evidence actually changed minds at scale. Look beneath the data to the story structure. What narrative frame made the evidence feel relevant? How did the communicator earn permission to challenge existing beliefs? What made the new story more compelling than the old one?

Practice the reframe... Take an argument you care about where evidence hasn’t worked. Rewrite it twice. In version one, lead with all your best data, statistics, studies. In version two, start with a story that creates the emotional and logical frame for the data. Which version would convince someone who disagrees with you?

Closing reflection

Being a mindful sceptic means recognising that human minds are not evidence-processing machines. They are story-tellers that use evidence to support narratives they already find compelling.

This isn’t a flaw to be corrected. Indeed, that would be impossible because we are talking about how humans make sense of complex reality.

This insight will sting because it forces a choice.

You can keep believing that more evidence will eventually win, or you can accept that changing minds requires changing stories first.

I tried to weave this reality into the second edition of Missing Something, but it was a challenge. It’s partly resolved by being a mindful sceptic.

Evidence remains essential, but it serves narrative, not the other way around.

Evidence Support

Kunda, Z. (1990). The case for motivated reasoning. Psychological Bulletin, 108(3), 480-498.

TL;DR… synthesises decades of research showing that individuals are not neutral processors of evidence; rather, their reasoning is guided by motivation to protect their pre-existing beliefs, values, and self-image. The paper documents how people selectively attend to, interpret, and remember evidence that supports their identity and preferred narrative while disregarding conflicting data.

Relevance to insight… research is foundational because it directly investigates the mechanisms underlying why even large quantities of evidence fail to shift attitudes if they threaten identity or deeply held worldviews. It shows that narrative context and emotional investment systematically distort the effects of evidence, confirming the core sceptic insight.

Lewandowsky, S., Ecker, U. K. H., Seifert, C. M., Schwarz, N., & Cook, J. (2012). Misinformation and its correction: Continued influence and successful debiasing. Psychological Science in the Public Interest, 13(3), 106-131.

TL;DR… explores the persistence of misinformation even after clear, repeated correction with factual evidence. It demonstrates that corrections are much more effective when embedded within coherent alternative narratives, and that mere citation of data rarely corrects false beliefs when those beliefs are emotionally or ideologically charged.

Relevance to insight… supports the claim that narrative structure, not just evidence, is critical for persuasion and changing attitudes, making it a key resource for communicators seeking to overcome cognitive dissonance and motivated reasoning.

Nyhan, B., & Reifler, J. (2010). When Corrections Fail: The persistence of political misperceptions. Political Behavior, 32(2), 303-330.

TL;DR… political misperceptions rarely diminish when people receive corrective evidence; in some cases, corrections actually reinforce false beliefs—a phenomenon known as the backfire effect. The paper discusses how narrative framing and group identity often overpower reasoning based strictly on data alone.

Relevance to insight… conventional wisdom about evidence is flawed; cognitive resistance and narrative loyalty are so strong that only logical flow and identity can hope to overcome entrenched views.

van Zomeren, M., Postmes, T., & Spears, R. (2008). Toward an integrative social identity model of collective action: A quantitative research synthesis of three socio-psychological perspectives. Psychological Bulletin, 134(4), 504–535.

TL;DR… narrative identification—how individuals see their actions and beliefs as part of a larger group story—predicts social action much more reliably than objective evidence alone. Emotional engagement and narrative flow drive collective behaviour even in the face of overwhelming contrary evidence.

Relevance to insight… change is a function of logic and group narrative, not just exposure to facts or data, reinforcing the need for communicators to move beyond the evidence-only paradigm.

Each of these papers provides critical, peer-reviewed support for the insight that evidence alone rarely changes minds, particularly in emotionally or ideologically charged contexts. Cognitive dissonance, motivated reasoning, and narrative framing systematically overpower even the best scientific data unless communicators attend to story logic, emotional resonance, and group identity.

Core Idea

There’s a rhythm to the environmental campaigns that flood my social media feeds each week. A polar bear on a disappearing ice floe. Plastic choking a turtle. A child’s face, eyes locked on the camera, pleading.

The tagline and topic vary, but the tug at the heartstrings is a consistent strategy.

Green messaging has become a master class in emotional manipulation. Virtue sells, after all, and virtue wrapped in urgency sells even better.

Hit the right emotional note, craft the perfect moral frame, and resistance will crumble. Hearts will open. Minds will change. Progress will march forward on a wave of shared feeling… and a dollar or two will be donated.

The problem is that hearts are tribal. What moves one person to action moves another to dig in their heels.

Environmental campaigns succeed brilliantly at converting the already converted and enraging everyone else.

Counterpoint

Get the frame right, find the perfect emotional hook, and universal buy-in will follow. It’s the golden fleece of environmental activism, that one perfect campaign that will unite humanity under the green banner.

Let’s name this fantasy for what it is… fantasy.

Mass persuasion through virtue signalling doesn’t work. It never has. What it does is sort people into camps. The logger hears nothing but condescension. The coal miner smells betrayal. Even the suburban parent, calculating petrol costs, feels the sting of implied moral failure.

These campaigns operate as if everyone starts from the same baseline of values and interests. They don’t. The farmer facing bankruptcy at the wrong end of a drought doesn’t have the bandwidth for the plight of polar bears. The factory worker watching his industry die is too stressed about his own future to respond to children’s tears with compliance. The best he can do is a little compassion.

In these circumstances environmental virtue becomes a luxury good that only the comfortable can afford to buy.

The deeper problem is that emotional appeals sidestep the real drivers of environmental destruction. They offer a catharsis without strategy. Feeling good about caring becomes more important than actually solving anything.

Meanwhile, the systems grinding away at the biosphere through industrial agriculture, fossil energy dependence, and the mathematics of infinite growth that continues untouched by our feelings.

The Real Implications

Abandon universal messaging.

Accept that environmental action happens in a divided world, not a converted one. Stop pretending that the right emotional pitch will unite opposing economic interests. It won’t.

Build strategies around division, not despite it.

Target interventions where aligned incentives actually exist… The restoration project that pays farmers. The efficiency upgrade that cuts costs. The renewable installation that creates jobs. These work because they don’t require people to abandon their interests.

Collaborate with commercial actors as partners, not converts. The mining company that needs to rehabilitate land. The agricultural corporation facing soil depletion. The manufacturing firm chasing energy savings. These relationships are transactional, not emotional. They’re also more durable than campaigns built on guilt.

Most importantly, accept opposition as a feature, as prt of what inevitably happens. It’s not a fault.

In any system worth changing, some resistance is inevitable. The goal is progress despite disagreement. Environmental strategies should be built for a world of competing interests, not a fantasy of shared values.

Thought Challenges

Pick apart the last big environmental campaign you encountered… Who shared it approvingly, and who rolled their eyes? Map the economic, cultural, and political dividing lines. Notice how the messaging reinforced existing tribal boundaries rather than crossing them.

Hunt for the quiet successes... Find instances where environmental progress happened through compromise rather than conversion. A wetland restored for flood control. Solar panels installed for cost savings. Species protected for tourism revenue. Study what made these work when louder campaigns failed.

Monitor your own reactions to green messaging... When does it inspire you, and when does it irritate? What triggers the shift? Notice how your response depends as much on your circumstances as your values.

And if these are too challenging, why not read this book…

Closing Reflection

Being a mindful sceptic means dispensing with flattering stories about human nature.

People don’t abandon their interests because of perfect messaging. They change when new interests align with old ones.

Environmental progress happens in the margins where profit meets purpose, where necessity meets opportunity, where opposing forces find unexpected common ground.

Green persuasion as mass conversion is a dead end. Green persuasion as targeted collaboration is where the work begins.

Evidence Support

Brulle, R. J., Carmichael, J., & Jenkins, J. C. (2012). Shifting public opinion on climate change: An empirical assessment of factors influencing concern over climate change in the U.S., 2002–2010. Climatic Change, 114(2), 169–188.

TL;DR… partisan media and political polarization are the strongest predictors of shifts in climate change concern, far surpassing weather events or scientific messaging. Emotional or virtue-based campaigns rarely impact those outside the group already predisposed to environmental attitudes.

Relevance to insight… universal green appeals often reinforce pre-existing divisions. The authors recommend targeted interventions, highlighting the limits of broad emotional messaging in overcoming entrenched interests.

Gromet, D. M., Kunreuther, H., & Larrick, R. P. (2013). Political ideology affects energy-efficiency attitudes and choices. Proceedings of the National Academy of Sciences, 110(23), 9213-9218.

TL;DR… conservatives were less likely to choose energy-efficient products carrying an environmental label, even with personal economic incentives. Messaging shaped by virtue alienated some groups who responded positively only to direct cost savings.

Relevance to insight… environmental appeals succeed only among sympathetic subgroups, and that economic incentives bridge ideological divides. It bolsters the case for abandoning universal messaging in favour of pragmatic, interest-based strategies.

Feinberg, M., & Willer, R. (2013). The moral roots of environmental attitudes. Psychological Science, 24(1), 56–62.

TL;DR… Messaging framed in self-transcendent moral terms (care, fairness) motivates progressives but triggers resistance among conservatives; division decreases when using varied moral frames (purity, loyalty).

Relevance to insight… polarizing effect of one-size-fits-all virtue messaging and the need to recognize foundational moral and cultural wiring in campaign design.

Kahan, D. M., Jenkins‐Smith, H., & Braman, D. (2011). Cultural cognition of scientific consensus. Journal of Risk Research, 14(2), 147–174.

TL;DR… Cultural worldviews strongly influence perceptions of scientific messages about climate change, with individuals selectively interpreting information through their own value systems.

Relevance to insight… messaging does not persuade across cultural boundaries and often deepens division, making collaborative, targeted approaches essential.

Bain, P. G., et al. (2016). Co-benefits of addressing climate change can motivate action. Nature Climate Change, 6, 154–157.

TL;DR… When climate action was framed around co-benefits (health, economy), support increased across ideological lines, compared to pure moral or environmental appeals.

Relevance to insight… compromise and practical incentives unite divided groups and are more persuasive than advocacy anchored in virtue or emotion alone.

The efficiency of environmental campaigns hinge on their realism, their ability to accept division, leverage incentives, and target interventions rather than chasing consensus by sentimental force.

Core Idea

Conservation campaigns excel at evoking emotions.

The young volunteer, wearing a bright t-shirt and carrying a donation bucket, speaks with passion about saving the koala. Her eyes shine with purpose. The language is urgent, emotive, and designed to bypass your rational filters and head straight for your wallet.

But ask her how many koalas actually exist?

She’ll pause. Maybe she’ll mention some numbers. Perhaps 329,000, or was it 144,000, or 605,000? The range is so wide it’s meaningless.

Press her further and ask. Do we know if populations are declining, stable, or recovering? If she is honest, she will shrug. More likely, she will claim they are declining.

The truth is that suitable, irrefutable and relevant facts are difficult to find or may not exist. Until a report from detailed population and habitat surveys in late 2025, this was true for the koala in NSW, the Australian state that is bigger in land area than every European country except Russia. Not even the scientists knew how many.

When hard data proves elusive or contradictory, emotional appeals rush in to fill the space. The more uncertain the facts, the more dramatic the rhetoric becomes.

Gathering her wits, the young volunteer will assure you it’s devastating, a crisis, extinction. Words that generate feelings, where evidence fails to generate knowledge.

A mindful sceptic recognises this pattern.

When passion increases in inverse proportion to precision, when certainty rises as data quality falls, that’s when your sceptical radar should start humming.

Counterpoint

The standard response from the conservationist goes something like this…

We don’t need perfect data to know something urgent is happening. The trends are clear enough. Besides, by the time we have definitive proof, it will be too late.

Of course, we have to act on incomplete information. Even you science types tell us that precaution is wise when dealing with irreversible losses.

And there’s truth in this.

Conservation does face genuine time pressures, and waiting for perfect data can be a form of paralysis.

But here’s what the mindful sceptic notices. Emotional campaigns don’t just acknowledge uncertainty; they actively obscure it. They present contestable claims as settled facts. They use normative language like only 329,000 koalas left without explaining what only means in this context.

Is that number historically high or low? Is it stable or changing? The emotive framing makes these questions seem almost impertinent.

More troubling is that emotion-driven narratives resist course correction. When subsequent research suggests koala populations might be more stable than claimed, or distributed differently than assumed, the campaigns rarely adjust.

The story has taken on a life of its own, independent of the evidence that supposedly supports it.

The real counterpoint is uncomfortable... emotion has become a substitute for evidence, not its ally.

Thought Challenges

Trace the data trail… Next time you encounter an urgent conservation claim, dig backwards. Where do the numbers come from? When you find the original research, what caveats did the scientists include that disappeared by the time it reached the campaign materials? Note how certainty increases as you move from peer-reviewed papers to press releases to fundraising appeals.

Map the emotion markers… Choose a conservation website or campaign and highlight every emotionally charged word—devastating, crisis, heartbreaking, urgent. Now look for the factual claims. What’s the ratio of feeling-words to data points? High emotion-to-evidence ratios are diagnostic of evidence vacuums.

Both exercises train the sceptical eye. You learn to recognise when passion is taking on tasks that should be left to proof.

Closing Reflection

Being a mindful sceptic about evidence vacuums doesn’t make you anti-conservation or heartless about suffering animals.

It makes you a better ally to genuine conservation by helping distinguish between problems that exist and problems that have been emotionally constructed.

The koala example reveals something larger about how modern institutions operate. When evidence is thin, emotion becomes the currency. When uncertainty is high, certainty in messaging increases to compensate. The organisations doing this aren’t necessarily acting in bad faith because they may genuinely believe their cause is just and their urgency warranted.

But for the mindful sceptic, this is precisely when vigilance is most needed.

The absence of evidence is not evidence of absence, but neither is the presence of passion evidence of anything except passion itself.

Facts are not feelings. When the two become confused, both suffer.

Evidence Support

Lunney, D., Stalenberg, E., Santika, T., & Rhodes, J.R. (2014). Extinction in Eden: Identifying the role of local government in species conservation. Pacific Conservation Biology, 20(1), 6–20.

TL;DR… population estimates for species such as the koala are highly uncertain due to fragmentary or missing data, yet emotive campaigns drive urgent public and political responses out of proportion to actual extinction risk. It documents how local government policies are shaped more by public sentiment, media pressure, and the symbolic use of species like koalas than by scientific consensus on their population dynamics.

Relevance to insight… The paper provides direct evidence that conservation decisions for charismatic species often leap ahead of the data due to public emotional investment, exposing an evidence vacuum that is exploited both by campaigners and policymakers.

Gulsrud, N. M., Hertzog, K., & Shears, I. (2018). Innovative urban forestry governance in Melbourne: Investigating “green placemaking” as a nature-based solution. Environmental Research, 161, 158–167.

TL;DR… explores broader conservation narratives in Australia, showing that urban forestry and conservation policy are often designed to trigger the emotions of city dwellers rather than the actual ecological needs outlined by evidence. Feel-good narratives, not measured outcomes, often drive resource allocation.

Relevance to insight… supports the critique that conservation strategy is frequently dictated by emotional campaigns (“feel-good” stories about saving nature) regardless of the hard evidence needed for long-term sustainability.

Veríssimo, D., MacMillan, D. C., & Smith, R. J. (2011). Toward a systematic approach for identifying conservation flagships. Conservation Letters, 4(1), 1–8.

TL;DR… meta-analysis of conservation flagships reviews dozens of case studies and concludes that flagship species selection and related funding decisions are overwhelmingly driven by public emotion, symbolism, and marketing potential, not by scientific assessments of ecosystem needs or conservation efficacy.

Relevance to insight… lays the foundation for understanding the systematic evidence vacuum engineered by emotional selection and validation of certain species and narratives in flagship campaigns.

Bruskotter, J. T., & Shelby, L. B. (2010). Human dimensions of large carnivore conservation and management: Introduction to the special issue. Human Dimensions of Wildlife, 15(5), 311-314.

TL;DR… human attitudes to carnivore conservation, the authors show how emotional responses of fear, admiration, or sentimental attachment, interfere with objective risk assessments and policy formation. Management is often driven by stories and symbols rather than data, leading to persistent information gaps.

Relevance to insight… underscores the psychological basis for emotion-driven conservation priorities, revealing how an evidence vacuum is not only a technical problem, but a chronic feature of public and institutional reasoning in conservation.

Emotionally charged campaigns, particularly focusing on charismatic or iconic species like the koala, routinely overwhelm scientific uncertainty or the absence of evidence. In the public mind and political sphere, evidence takes a back seat to stories that mobilise sentiment and tribal identity. This evidence vacuum is not merely a gap to be filled with better research, but a structural feature of the way conservation is governed and sold—often at the expense of rigorous, objective outcomes.

The dominant environmental script swings between apocalyptic despair and techno-salvation, with not much room in the middle. This essay examines how historical societies actually navigated serious environmental stress and what resilience looked like at different scales. The point isn’t to downplay what’s coming. It’s to reframe it as an adaptive challenge rather than end times or business as usual. That shift buys us some clearer thinking, better choices, and a more productive way to meet the profound transitions ahead.

I presume that most people have heard of the Flemish master Peter Paul Rubens, world-famous for his lush, energetic Baroque masterpieces. But he was also a spy. Kings and queens across Europe wanted him to paint their portraits, and he used access to royal courts to trade information and was instrumental in brokering a peace treaty between England and Spain in 1630.

Here is one of his paintings, which centres on the Virgin Mary holding the Christ Child, standing atop a crescent moon and crushing a serpent beneath her feet.

The truth is that humans have always been drawn to apocalyptic and salvationist narratives, especially when spiced with intrigue. Well, we love a story for starters, and really love one where the hero saves the world from disaster, just like Superman, Batman, the Avengers, James Bond… you get the idea.

We like the bit in the hero’s journey where the angel can cast out Satan, but she has to do this; otherwise, our story ends. But what we really like about heroes, beyond the defeat of the baddie, is the risk they take of losing their soul or their family, a loved one, in the course of the casting out. Then the outcome is much more uncertain and emotionally engaging.

What will be the heroic arc to save humanity from the apocalypse of overabundance? Will it come from peddlers of the dominant environmental discourse? Either the folk with dystopian visions of collapse or those with faith in technological salvation in the time it takes not to look up. Such polarised narratives can be emotionally compelling but are rarely empowering.

We have had these heroes among us for a while. They tend to overuse apocalyptic rhetoric, which disempowers rather than galvanises. They are countered by unbridled techno-optimism that will have us setting up colonies on Mars.

This essay explores a few of these stories before reframing environmental change as an adaptive challenge. It suggests we might need a different kind of hero, perhaps with more to lose, who can tackle a much richer engagement with complexity.

Let’s begin with the first premise that Satan may be among us…

Talk of imminent collapse, irreversible tipping points, and civilisational doom has become a common feature in media, activist messaging, and even scientific communication. These emotionally compelling narratives attract attention, making them powerful tools for raising awareness. And there are endless examples, but here are two.

Leonardo DiCaprio’s climate change documentary Before the Flood (2016) opens with the kind of imagery that doesn’t leave much room for doubt. Melting ice caps. Burning forests. Flooded cities. It’s mainstream media doing what it does best when it wants to move you fast.

Produced with National Geographic, the film frames environmental collapse as urgent and irreversible, and it keeps that pressure on with dire warnings about civilisation’s trajectory. Scientists and activists lean on tipping points, like methane release from permafrost or coral bleaching, where the system can lurch and then fail to recover. Cross a threshold, and the warming accelerates.

So the narrative is built to hit the viewer in the gut, then convert that shock into motivation for climate action by making collapse feel imminent. The hero did most of his heroism in other roles.

Perhaps understandably, the Intergovernmental Panel on Climate Change (IPCC) tends to write like a committee, with careful language and qualified claims. But once those reports hit the media, the centre of gravity shifts toward the sharpest edge.

Coverage often pulls out the most dramatic conclusions and builds the surrounding story. Headlines like Code Red for Humanity (from the 2021 IPCC report) elevate phrases such as irreversible impacts, runaway warming, or tipping points. The summaries aren’t untethered from the science, but the framing gets compressed into stark warnings that can read like a countdown to societal collapse or uninhabitability unless decisive action is taken.

Some scientists find portrayals like this controversial. Still, it’s one way the broader public gets the weight of inaction. However, the drama is dry and remote, lacking the personal touch.

There are many examples like these where the emotional rhetoric of collapse is expected to provoke concern, drive engagement, and potentially inspire change. At least that is what we suppose the proponents thought should happen… to frighten people into action. The problem is that this is more villain than hero.

Then the psychology researchers got to work. They found that fear-based messaging without accompanying pathways for action often triggers eco-anxiety, learned helplessness, or denial, rather than motivating pro-environmental behaviour. A classic consequence of the dissonance and dissociation we found in a previous essay. While short-term urgency can spark action, as when all my neighbours helped each other during a bushfire in our street, sustained engagement typically requires a sense of agency and hope. The story is only uplifting if we can believe that Superman, Batman or Wonder Woman can actually defeat the baddies.

Psychologists also found that a focus on worst-case scenarios can obscure the complexity and variability of environmental change. It can eclipse stories of adaptation, resilience, and innovation, the very narratives more likely to inspire systemic and individual responses. For this reason, many scholars and communicators argue for a shift toward framing that integrates urgency with possibility.

But partly because it excels at capturing attention, apocalyptic framing dominates, even though its limited utility is well-documented. The evidence strongly supports the apocalyptic narrative premise.

Just to be certain, let’s reinforce the premise with another one that doubles down.

Collapse rhetoric is the story that environmental breakdown inevitably cashes out as social or civilisational collapse. It’s a compelling frame ready to shock and grab attention. But there’s a catch because when a threat feels insurmountable or inevitable, people don’t mobilise. They shut down; emotionally, cognitively, or both. My wife does this after about 30 seconds of me enthusiastically recounting my latest anecdote of doom. Researchers sometimes refer to the pattern as defensive avoidance with a consistent outcome of inaction because people feel powerless.

You see it in younger people, too. High exposure to doomsday messaging shows up as eco-anxiety, the dread, burnout, and numbness from the chronic fear of environmental cataclysm and the persistent distress caused by observing the seemingly irrevocable impact of climate change on the planet’s future.

And then collapse rhetoric bleeds into politics to corrode trust in democratic processes and make extremist or authoritarian responses feel like the only serious option. Once a population believes it’s on the brink of extinction, strongman tactics become more acceptable. Actions that would otherwise read as plainly undemocratic. Politicians start claiming that, to save the nation, they must bypass slow democratic processes, ignore court rulings, or silence the opposition.

We’ve seen this movie before. It played out in the Weimar Republic’s final years in Germany, and it delivered a catastrophically flawed leader.

Collapse narratives do highlight urgency, but they often reinforce inaction by overwhelming individuals rather than mobilising them toward constructive, collective change. In communities already experiencing structural inequality, such rhetoric can exacerbate feelings of marginalisation and further reduce engagement. People are still concerned about environmental risks, but how we frame these challenges fundamentally shapes responses.

Somehow, we need the narrative of urgency while preserving human agency, exactly what mindful scepticism advocates. But before we get all high and mighty about new options, it is worth looking back to see if humans have been in similar positions of resource stress before and what they did about it.

Environmental history, archaeology, and historical ecology tell a messier story than the collapse-only version. Past societies did get hit by climate shifts, resource depletion, and ecological disruption, but their outcomes weren’t uniform. Some collapsed. Some moved. Some improvised. Some redesigned institutions to fit a tighter world. And across those cases, the record is crowded with adaptive strategies, early warning signals, and resilience mechanisms that show how different groups absorbed stress or failed to.

Jared Diamond’s comparative analysis in his book Collapse is probably the most familiar and comprehensive examination of how societies have historically navigated environmental challenges, but his work represents just the tip of an extensive research iceberg. Archaeological evidence from institutions like the Smithsonian’s Human Origins Program shows that human societies have successfully adapted to ice ages, volcanic winters, and regional climate shifts for over 300,000 years. Collapse wasn’t inevitable when adaptations were possible through sophisticated technological, social, and cultural innovations.

Japan’s Edo period is often read as a top-down sustainability story. The Shogunate responded to a timber crisis with strict forest management, recycling systems, and a tightly regulated internal economy that stabilised resource use. The Zuni people offer a bottom-up model of resilience. Through traditional ecological knowledge that enabled runoff farming and waffle gardens, they maintained food security in a fragile arid landscape for centuries.

With sea levels rising, the Dutch have leaned on centuries of water management and built on 1,000 years of engineering dikes, canals, and flood control systems. Their adaptation strategy today includes projects like Room for the River, which reshapes urban and rural landscapes to accommodate periodic flooding rather than fight it. Because this is proactive and culturally embedded, it lets the Netherlands manage climate risk with confidence and precision, unlike societies that meet environmental change as something wholly new and destabilising.

And there are plenty of similar examples from Balinese water temple systems, Icelandic fisheries management, to Aboriginal fire management in Australia that demonstrate complex adaptive strategies that maintained both ecological and social stability across centuries of environmental variability. The heroes here have humility. Rather than control or conquer, they understand that their role is to facilitate natural cycles that were established long before they were born and must continue long after they are gone.

Pragmatic insights and solutions like these remain largely absent from mainstream environmental policy discussions, which tend to focus either on future projections or present-day technological fixes.

In short, this premise holds and gives us the key insight that human societies have always been adaptive systems. So instead of an apocalypse that requires the ecclesiastical imagery of Baroque painters, what happens if we assume that adaptation is an option?

Many past societies did adapt to ecological change. Not with a single grand redesign, but with small, cumulative moves. Better farming. Tighter water management. More trade options. Shifts in land tenure. The sweeping, cinematic reset was the exception. Most of the time, it was accretion, not breakthrough.

For example, indigenous Andean societies developed terracing and irrigation methods to cope with variable mountain climates, and medieval European communities adjusted land-use patterns and communal resource management during the Little Ice Age. Even the British, during the sea blockades early in World War II, set out to turn as much spare land as possible into gardens to grow food.

These responses were neither static nor utopian; they evolved and often depended on the ability to renegotiate norms, redistribute resources, or alter governance structures in response to changing conditions. In short, people and their systems were flexible.

Incremental change reinforces the key point often overlooked in modern environmental policy, that adaptation does not always require radical disruption or high-tech intervention. Instead, it often hinges on resilience-building practices embedded within communities, sustained by cultural knowledge, responsive institutions, and feedback loops between people and their environments.

In Iceland, adaptation was a string of pragmatic pivots. Grain gave way to pastoralism. Diets leaned harder on the sea, especially fish and seabirds. Turf became a managed building resource. These were flexible responses to variability during the Medieval Warm Period, built from social organisation and accumulated ecological knowledge.

Between 600–1300 CE, the Ancestral Puebloans of the American Southwest built adaptation into the landscape. Check dams, terraces, and canals to capture scarce water. Crop diversification, including drought-tolerant maize. Communal granaries and other storage to buffer short-term shocks. Late 13th century droughts, plus population pressure and possibly internal conflict, contributed to the abandonment of Mesa Verde and Chaco Canyon. People migrated, and Puebloan life reorganised in new places.

I could go on.

Societies that made it through environmental stress often paired technological innovation with social flexibility, and even then, success was uneven and never guaranteed. The core pattern is iterative through experimentation, adjustment, learning, then more adjustment. This suggests there is a lesson to treat today’s environmental challenges as a moving target and build for continuous adaptation, not one-time fixes.

In other words, we already have countermeasures to the apocalyptic narrative, so we could adopt them as principles to guide our responses.

Successful adaptation is rarely all-or-nothing. Societies that endure environmental stress tend to maintain core governance structures, cultural narratives, and mechanisms of community cohesion, while changing how they operate. That blend is the point. Resilience thinking treats continuity and change as a paired move because neither rigid stability nor wholesale transformation, on its own, reliably produces sustainability.

I think this is often forgotten in the fear of change. The assumption is that everything we know and love will be lost, and what replaces it will be uncomfortable or even horrible. Hence, the need for a saviour, religious or secular. Only this is not how it works.

In Tokugawa Japan, the state kept social order and political continuity intact while still reshaping land use, forest management, and economic practice to live within ecological constraints. In traditional Pacific Island societies, cultural cohesion and oral knowledge systems persisted even as people adjusted settlement patterns or fishing techniques in response to shifting marine or climatic conditions. Across cases like these, the idea is how people operate under constraint. Humans are often good at working in loops that embrace feedback, learning, redundancy, and modularity, which maps cleanly onto concepts now foundational in modern resilience frameworks.

Importantly, acknowledging both continuity and transformation avoids two common pitfalls in environmental narratives. The first assumption is that preserving the status quo is always desirable or feasible. The keep everything the same fallacy. The second is the idea that transformation must be total, rapid, or disruptive. When change begins, it will be catastrophic. Instead, adaptation often involves layered, iterative adjustments, where some aspects of a system are stabilised while others evolve. A nuanced understanding like this, drawn from historical successes, is especially relevant today as societies navigate complex transitions without eroding their social foundations or cultural identities.

One further example is necessary here.

The adaptive cycle framework, developed by ecologist and systems theorist C.S. “Buzz” Holling, offers a dynamic model for understanding resilience in ecological and social systems. Rather than assuming stability is the norm, Holling proposed that resilient systems move through four recurring phases: rapid growth (r), conservation (K), release or collapse (Ω), and reorganisation (α). This cycle reflects how systems accumulate resources, become more rigid or vulnerable, experience disruption, and then reorganise into new configurations. Adaptation, in this context, is not about preventing change but about navigating these transitions without losing the system’s core identity or functionality.

The Venetian merchant network is a clean example of adaptation with a backbone. It stayed durable across centuries of political and economic churn by keeping a stable institutional core in place, guilds, maritime law, and banking infrastructure, while still adjusting to new trade routes, shifting alliances, and changing technologies. Japan’s traditional forest management shows a similar pattern in a different domain. Systems evolved through cycles of depletion and renewal, and after periods of overuse, policies like temple-controlled reforestation and community-based resource limits helped sustain the resource over the long run. In both cases, the point is not perfect foresight, but a systemic capacity to reorganise when ecological strain made the old pattern untenable.

An adaptive cycle raises an uncomfortable question of where modern societies are on that arc.

Since the start of the Industrial Revolution, countries in the Global North have seen rapid growth across the board, and the appetite for more hasn’t gone away. But many of these societies now carry the classic fingerprints of a late-stage system with accumulated wealth, institutional rigidity, and a growing vulnerability to disruption. That looks a lot like the conservation phase, with clear signs of systemic stress.

If adaptation isn’t pursued proactively, the next steps tend not to be gentle. The path narrows toward collapse or drastic reorganisation.

However, it can’t be everything all the time. There is the problem of scale…

Environmental challenges like droughts, floods, and biodiversity loss show up locally, but they’re rarely purely local in origin. They’re shaped and amplified by larger forces that include global climate change, economic policies, and geopolitical dynamics. So adaptation has to match the shape of the problem. It has to run across scales from the local, context-specific responses on the ground to institutional and policy-level shifts that enable, fund, and reinforce those efforts.

Bottom-up and top-down at the same time.

Historical and contemporary case studies support this principle. For instance, smallholder farmers in sub-Saharan Africa have adapted to climate variability through crop diversification and water conservation techniques, but these innovations are most durable when supported by access to markets, land rights, and government extension services. Likewise, urban climate resilience projects that emerge from community engagement often depend on integration with municipal planning and national policy for long-term viability.

Resilience literature also points to scale-crossing brokers and polycentric governance as core mechanisms for adaptation. In plain terms, these are the actors, institutions, or networks that move information and resources—and keep policies aligned—across different levels of decision-making. Without that connective tissue, local efforts can get boxed in by higher-level constraints, and top-down strategies can fail because they don’t fit on-the-ground realities.

Here is the thing. Local action within a broader structure is how humans transitioned from living in small bands on the savanna to create large, organised social systems. And it’s what we do now.

The Transition Towns movement, started by Rob Hopkins in the mid-2000s, is a clear example of local, grassroots adaptation. The idea is simple. Build resilience close to home through local food systems, renewable energy projects, and community-based economic support.

Totnes in Devon, England was the first Transition Town, and it became a reference point for how small places can test more sustainable ways of living under climate change, peak oil, and economic instability. The toolkit is a practical mix of community currencies, food co-ops, energy descent plans, and citizen-led infrastructure projects. The aim is to shrink ecological footprints and strengthen local self-reliance.

These efforts scale better when city or national policy makes room for them through funding, legal flexibility, or infrastructure support. By contrast, top-down sustainability mandates often stumble when they lack community buy-in or fail to fit local conditions.

Adaptive framing is more effective than the apocalyptic narrative we began with, but it requires coordination to be a practical tool. And it can’t just be local or structural, it has to be both. Hence, ideas like transition towns, regenerative agriculture networks, and urban resilience programs become functional nodes in a larger system as well as feel good stories.

When environmental issues are framed as existential threats with only a narrow set of solutions, the response often collapses into paralysis, denial, or reactionary politics. When the same challenges are framed as opportunities for adaptation, the response set widens. You get more proactive behaviour, more hope, and more participation. It also trains the right stance. It makes room for complexity, uncertainty, and learning. This is everything a mindful sceptic should be.

Cities facing sea-level rise are experimenting with living shorelines and climate-resilient infrastructure, not just to defend against change but to reimagine urban design. Some agricultural systems are adopting regenerative principles that restore soils while enhancing productivity and local food security. Indigenous and place-based knowledge systems, which have always been adaptive, are now being recognised as central to climate resilience strategies.

Adaptation framing also broadens who gets to participate. It invites contributions from education, health, technology, arts, and governance, and it treats meaningful action as distributed and diverse rather than owned by one sector. It also makes room for incremental and systemic work, not a brittle pass fail story of success or failure. That flexibility matters if you want momentum that survives different contexts and longer timeframes.

But the reframing only helps when the opportunities are real. They have to be genuine, achievable, and aligned with what people already care about and can actually do.

Here is the heretical thought.

Our most passionate environmental advocates may be inadvertently sabotaging the very cause they champion. Every time we share another apocalyptic climate headline, and every time we describe environmental challenges as a civilisational collapse, we may be systematically training human brains to disengage.

Cognitive science is unforgiving on this point. When we frame environmental challenges as overwhelming disasters, we activate psychological defence mechanisms that make people less likely to act, even while increasing their anxiety. We’re creating a generation of environmentally anxious but behaviourally disengaged humans.

This demands uncomfortable self-reflection from anyone who cares about environmental issues. Are your climate conversations helping or hindering your efforts? When you share that latest alarming study or catastrophic projection, are you building adaptive capacity or feeding the paralysis machine?

Ask yourself this.

Does this apocalyptic narrative enhance or diminish my sense of agency? Then experiment with reframing one environmental concern as adaptation opportunities rather than a looming threat. The goal isn’t to minimise real challenges, but to activate your exploration mindset rather than your defensive one.

The evidence suggests our environmental future depends less on perfect data and more on our collective capacity to engage constructively with uncertainty. That capacity is shaped, minute by minute, by the stories we tell ourselves about what’s possible.

Neither technology nor collapse is coming to save us from the hard work of adaptation. Despite decades of hoping for either revolutionary breakthroughs or clarifying catastrophes, the evidence suggests a gradual, iterative, and unglamorous change across multiple generations. We have to adapt, and it will take time, trial and error and action.

This is a demanding task, and our culture finds it deeply uncomfortable. We will need to adopt long-term, incremental change rather than find a transformative silver bullet today.

So we don’t need conquering warriors who defeat nature, the traditional hero who uses force to restore the status quo.

The heroes and heroines we need have the humility to accept that the world has changed and then redesign accordingly. Partnership over dominance. Human systems that flow with a volatile environment rather than fighting it.

This kind of heroism is defined by intergenerational integrity and the ability to build social architecture. Much like the biblical Daniel, these figures operate with temporal depth, ignoring short-term political or economic pressure in favour of long-term survival. They’re the bridge-builders who create cooperatives and community trust, so society doesn’t collapse into conflict when resources become scarce.

Ultimately, this is a hero of Tragic Optimism like Malala Yousafzai or Nelson Mandela. The modern heroes for the environment would neither deny environmental loss nor succumb to the paralysis of despair. They would offer the steady, ethical leadership needed to transition into a new reality, and their legacy would be a functioning, resilient ecosystem passed down to the next seven generations.

Could you be one?

Core Idea

The meeting room smells of burnt coffee and bad aftershave. Fortunately, no longer the hideous cigarette smoke.

On the screen, PowerPoint slides flicker through incremental solutions, green innovations, and the same comfortable narrative that has carried governments and corporations for decades. It’s another presentation on sustainable growth targets that fails to freshen the air.

They all tell the same old lie… crises can be managed within the current system. All you have to do is tweak it, give it some oomph.

A bit more efficiency here, some renewable energy there, perhaps a carbon offset or better education. If we just optimise what exists, if we just get the politics right, if we just innovate our way forward, the problems of 8 billion people on a finite planet will sort themselves out.

A mindful sceptic recognises this as fantasy.

The rules of the game, not just the players, are what need changing. Systems built on perpetual growth do not accommodate planetary limits through better management. They don’t accommodate them at all.

Counterpoint

The standard narrative promises salvation because technology will decouple growth from resource use. Then markets will do something they have never done before and price in environmental costs. Democracy will respond to voter pressure for change and survive. Education will get better, raise awareness and shift behaviour. And, naturally, leadership will provide vision and the shining light.

Each reform carries the same seductive appeal that it is possible to fix the crisis without changing how you live. You get to keep the job, keep the institutions you rely on, and keep the fundamental architecture of endless expansion that you know will give you an opportunity tomorrow or maybe the next day. Just tweak the variables a bit and all is well.

But systems are not machines with adjustable settings. They are emergent properties of deeper rules and incentives. When those rules demand infinite growth on a finite planet, reforms become elaborate exercises in missing the point.

The arithmetic is unforgiving.

Every efficiency gain gets swamped by scale effects. All the green innovation gets dwarfed by overall consumption increases. Every environmental regulation gets gamed by actors whose survival depends on externalising costs.

The result is a treadmill of well-intentioned failure, where each solution creates the need for more solutions.

The uncomfortable truth is that you can implement every sensible reform and still watch the biosphere unravel.

Reform assumes the system can be repaired.

Collapse suggests it needs to be replaced.

Thought Challenge

List three major reforms or initiatives from the past decade that promised to address environmental or economic crises. For each one, identify what deeper system drivers were left completely untouched. Ask what would need to change for this reform to be unnecessary?

Map the institutions in your own life that depend on business-as-usual continuing. Include your job, your superannuation, your mortgage, your government services. Now imagine designing equivalents for a world with half the energy and twice the climate disruption. What survives? What gets invented? What gets abandoned?

Role-play as a systems designer tasked with creating a post-growth economy. Start with hard physical constraints of less fossil fuel, degraded soils, unstable climate. Work backwards to what kinds of work, governance, and social contracts might actually function under those conditions. Notice how different this looks from current green policy proposals.

Closing Reflection

While institutions debate carbon pricing and renewable targets, the more profound question remains choking in the poorly recycled air of the conference room… what if the system that created these crises cannot be reformed enough to solve them?

Being a mindful sceptic means recognising when the conversation itself is the problem.

Here’s the thing.

The arithmetic of 8 billion people and dwindling resources does not care about political feasibility. Physics is not negotiable.

Business-as-usual is not a choice; it is an impossibility pretending to be common sense.

Evidence Support

Steffen, W., Richardson, K., Rockström, J., Cornell, S. E., Fetzer, I., Bennett, E. M., ... & Sörlin, S. (2015). Planetary boundaries: Guiding human development on a changing planet. Science, 347(6223), 1259855.

TL;DR… introduce and quantify nine planetary boundaries that define a safe operating space for humanity, showing that transgressing these boundaries risks destabilising Earth’s systems. Four boundaries, including climate change and biosphere integrity, have already been extensively breached.

Relevance to insight… This paper is foundational evidence that incremental reforms within current systemic norms cannot address the escalating transgression of biophysical limits. The planetary boundary framework directly contradicts the notion that traditional growth-based models can be made sustainable with minor adjustments.

Jackson, T. (2009). Prosperity without growth? The transition to a sustainable economy. Sustainable Development Commission, UK.

TL;DR… prosperity as social well-being can no longer be coupled with continual GDP growth in wealthy societies. Analysis indicates that efforts to decouple growth from environmental impact have consistently failed to bring about sustainable outcomes.

Relevance to insight… business-as-usual—defined as perpetual economic expansion—is irreconcilable with resource and ecological constraints, reinforcing the need for radical systemic reorganisation rather than policy tweaks.

Daly, H. E., & Farley, J. (2011). Ecological economics: Principles and applications (2nd ed.). Island Press.

TL;DR… critique of classical and neoclassical economics, arguing that a refusal to acknowledge natural limits has led modern economies into overshoot. The authors explain how ignoring ecosystem services and biophysical realities is fundamentally destabilising for economic and social systems.

Relevance to insight… elaborates mechanisms by which superficial reforms are systematically undermined by deeper drivers, emphasising that only radical restructuring of economic principles will address the root causes of the crisis.

Turner, G. M. (2014). Is Global Collapse Imminent? MSSI Research Paper No. 4, Melbourne Sustainable Society Institute, The University of Melbourne.

TL;DR… updated data and the original Limits to Growth computer models, Turner shows that global overshoot and collapse remain probable under current business-as-usual scenarios. Real-world trends—including resource depletion and pollution—track closely with worst-case model outputs.

Relevance to insight… empirical confirmation that incremental reforms and technological optimism have yet to meaningfully divert the system from its unsustainable trajectory, reinforcing the insight’s emphasis on radical overhaul.

Bardi, U. (2011). The Limits to Growth Revisited. Springer.

TL;DR… revisits the historical “Limits to Growth” reports, compiling decades of subsequent research and real-world data showing that most global development scenarios leading to collapse have been unfolding as predicted. He discusses how denial and superficial solutions have delayed necessary systemic changes.

Relevance to insight… connects historical forecasts with current realities, showing that persistent belief in reform while ignoring system-level limits is a recipe for ongoing degradation—exactly as warned by the insight.

Each of these studies scrutinises the physical, ecological, or economic boundaries that render incremental adaptations inadequate. The authors independently converge on the conclusion that superficial solutions and technological optimism are poor substitutes for confronting systemic drivers of growth, consumption, and the myth of perpetual progress. Their multidisciplinary evidence base offers a robust scientific foundation for radical change as the only viable path forward.