In my own work, I found that the Syrian conflict was not just triggered by climate change, but a range of intersecting factors—Syria’s domestic crude oil production had peaked in the mid-90s, leading state revenues to hemorrhage as oil production and exports declined. When global climate chaos triggered food price spikes, the state had begun slashing domestic fuel and food subsidies, already reeling from the impact of economic mismanagement and corruption resulting in massive debt levels. And so, a large young population overwhelmed with unemployment and emboldened by decades of political repression took to the streets when they could not afford basic bread. Syria has since collapsed into ceaseless civil war.

This is a case of what Professor Thomas-Homer Dixon, University Research Chair in the University of Waterloo’s Faculty of Environment, describes as “synchronous failure”—when multiple, interconnected stressors amplify over time before triggering self-reinforcing feedback loops which result in them all failing at the same time. In his book, The Upside of Down: Catastrophe, Creativity and the Renewal of Civilization, he explains how the resulting convergence of crises overwhelms disparate political, economic and administrative functions, which are not designed for such complex events.

From this lens, climate-induced collapse has already happened, though it is exacerbated by and amplifies the failure of myriad human systems. Is Syria a case-study of what is in store for the world? And is it inevitable within the next decade?

In a major report released in August, the UN’s Intergovernmental Panel on Climate Change (IPCC) warned that hunger has already been rising worldwide due to climate impacts. A senior NASA scientist, Cynthia Rosenzweig, was a lead author of the study, which warned that the continued rise in carbon emissions would drive a rise in global average temperatures of 2°C in turn triggering a “very high” risk to food supplies toward mid-century. Food shortages would hit vulnerable, poorer regions, but affluent nations may also be in the firing line. As a new study from the UK Parliamentary Environment Audit Committee concludes, fruit and vegetable imports to countries like Britain might be cut short if a crisis breaks out.

When exactly such a crisis might happen is not clear. Neither reports suggest it would result in the collapse of civilization, or even most countries, within 10 years. And the UN also emphasizes that it is not too late to avert these risks through a shift to organic and agro-ecological methods.

NASA’s Gavin Schmidt acknowledged “increasing impacts from climate change on global food production,” but said that a collapse “is not predicted and certainly not inevitable.”

The catastrophic ‘do-nothing’ scenario

A few years ago, though, I discovered first-hand that a catastrophic collapse of the global food system is possible in coming decades if we don’t change course. At the time I was a visiting research fellow at Anglia Ruskin University’s Global Sustainability Institute, and I had been invited to a steering committee meeting for the Institute’s Global Research Observatory (GRO), a research program developing new models of global crisis.

One particular model, the Dawe Global Security Model, was focused on the risk of another global food crisis, similar to what triggered the Arab Spring.

“We ran the model forward to the year 2040, along a business-as-usual trajectory based on ‘do-nothing’ trends—that is, without any feedback loops that would change the underlying trend,” said institute director Aled Jones to the group of stakeholders in the room, which included UK government officials. “The results show that based on plausible climate trends, and a total failure to change course, the global food supply system would face catastrophic losses, and an unprecedented epidemic of food riots. In this scenario, global society essentially collapses as food production falls permanently short of consumption.”

Jones was at pains to clarify that this model-run could not be taken as a forecast, particularly as mitigation policies are already emerging in response to concern about such an outcome: “This scenario is based on simply running the model forward,” he said. “The model is a short-term model. It’s not designed to run this long, as in the real world trends are always likely to change, whether for better or worse.”

Someone asked, “Okay, but what you’re saying is that if there is no change in current trends, then this is the outcome?”

“Yes,” Jones replied quietly.

The Dawe Global Security Model put this potential crisis two decades from now. Is it implausible that the scenario might happen much earlier? And if so why aren’t we preparing for this risk?

When I asked UN disaster risk advisor Scott Williams about a near-term global food crisis scenario, he pointed out that this year’s UN flagship global disaster risk assessment was very much aware of the danger of another global "multiple breadbasket failure."

“A projected increase in extreme climate events and an increasingly interdependent food supply system pose a threat to global food security,” warned the UN Global Assessment Report on Disaster Risk Reduction released in May. “For instance, local shocks can have far-reaching effects on global agricultural markets.”

Climate models we've been using are not too alarmist; they are consistently too conservative, and we have only recently understood how bad the situation really is.

Current agricultural modelling, the UN report said, does not sufficiently account for these complex interconnections. The report warns that “climate shocks and consequent crop failure in one of the global cereal breadbaskets might have knock-on effects on the global agricultural market. The turbulences are exacerbated if more than one of the main crop-producing regions suffers from losses simultaneously.”

Williams, who was a coordinating lead author of the UN global disaster risk assessment, put it more bluntly: “In a nutshell, Bendell is closer to the mark than his critics.”

He pointed me to the second chapter of the UN report which, he said, expressed the imminent risk to global civilization in a “necessarily politically desensitized” form. The chapter is “close to stating that ‘collapse is inevitable’ and that the methods that we—scientists, modellers, researchers, etc—are using are wholly inadequate to understand that nature of complex, uncertain ‘transitions,’ in other words, collapses.”

Williams fell short of saying that such a collapse scenario was definitely unavoidable, and the UN report—while setting out an alarming level of risk—did not do so either. What they did make clear is that a major global food crisis could erupt unexpectedly, with climate change as a key trigger.

Climate tipping points

A new study by a team of scientists at Oxford, Bristol, and Austria concludes that our current carbon emissions trajectory hugely increases this risk. Published in October in the journal Agricultural Systems, the study warns that the rise in global average temperatures is increasing the likelihood of “production shocks” affecting an increasingly interconnected global food system.

Surpassing the 1.5 °C threshold could potentially trigger major “production losses” of millions of tonnes of maize, wheat and soybean.

Right now, carbon dioxide emissions are on track to dramatically increase this risk of multi-breadbasket failures. Last year, the IPCC found that unless we reduce our emissions levels by five times their current amount, we could hit 1.5°C as early as 2030, and no later than mid-century. This would dramatically increase the risk of simultaneous crop failures, food production shocks and other devastating climate impacts.

In April this year, the European Commission’s European Strategy and Policy Analysis System published its second major report to EU policymakers, Global Trends to 2030: Challenges and Choices for Europe. The report, which explores incoming national security, geopolitical and socio-economic risks, concluded: “An increase of 1.5 degrees is the maximum the planet can tolerate; should temperatures increase further beyond 2030, we will face even more droughts, floods, extreme heat and poverty for hundreds of millions of people; the likely demise of the most vulnerable populations—and at worst, the extinction of humankind altogether.”

But the IPCC’s newer models suggest that the situation is even worse than previously thought. Based on increased supercomputing power and sharper representations of weather systems, those new climate models—presented at a press conference in Paris in late September—reveal the latest findings of the IPCC’s sixth assessment report now underway.

The models now show that we are heading for 7°C by the end of the century if carbon emissions continue unabated, two degrees higher than last year’s models. This means the earth is far more sensitive to atmospheric carbon than previously believed.

This suggests that the climate models we've been using are not too alarmist; they are consistently too conservative, and we have only recently understood how bad the situation really is.

I spoke to Dr. Joelle Gergis, a lead author on the IPCC’s sixth assessment report, about the new climate models. Gergis admitted that at least eight of the new models being produced for the IPCC by scientists in the US, UK, Canada and France suggest a much higher climate sensitivity than older models of 5°C or warmer. But she pushed back against the idea that these findings prove the inevitability of collapse, which she criticized as outside the domain of climate science. Rather, the potential implications of the new evidence are not yet known.

“Yes, we are facing alarming rates of change and this raises the likelihood of abrupt, non-linear changes in the climate system that may cause tipping points in the Earth’s safe operating space,” she said. “But we honestly don’t know how far away we are from that just yet. It may also be the case that we can only detect that we’ve crossed such a threshold after the fact.”

In an article published in August in the Australian magazine The Monthly, Dr. Gergis wrote: “When these results were first released at a climate modelling workshop in March this year, a flurry of panicked emails from my IPCC colleagues flooded my inbox. What if the models are right? Has the Earth already crossed some kind of tipping point? Are we experiencing abrupt climate change right now?”

Half the Great Barrier Reef’s coral system has been wiped out at current global average temperatures which are now hovering around 1°C higher than pre-industrial levels. Gergis describes this as “catastrophic ecosystem collapse of the largest living organism on the planet.” At 1.5°C, between 70 and 90 percent of reef-building corals are projected to be destroyed, and at 2°C, some 99 percent may disappear: “An entire component of the Earth’s biosphere—our planetary life support system—would be eliminated. The knock-on effects on the 25 percent of all marine life that depends on coral reefs would be profound and immeasurable… The very foundation of human civilization is at stake.”

But Gergis told me that despite the gravity of the new models, they do not prove conclusively that past emissions will definitely induce collapse within the next decade.

“While we are undeniably observing rapid and widespread climate change across the planet, there is no concrete evidence that suggests we are facing ‘an inevitable, near term society collapse due to climate change,’” she said. “Yes, we are absolutely hurtling towards conditions that will create major instabilities in the climate system, and time is running out, but I don’t believe it is a done deal just yet.”

Yet it is precisely the ongoing absence of strong global policy that poses the fatal threat. According to Lund University climate scientist Wolfgang Knorr, the new climate models mean that practically implementing the Paris Accords target of keeping temperatures at 1.5 degrees is now extremely difficult. He referred me to his new analysis of the challenge published on the University of Cumbria’s ILFAS blog, suggesting that the remaining emissions budget given by the IPCC “will be exhausted at the beginning of 2025.” He also noted that past investment in fossil-fuel and energy infrastructure alone will put us well over that budget.

The scale of the needed decarbonization is so great and so rapid, according to Tim Garrett, professor of atmospheric sciences at the University of Utah, that civilization would need to effectively “collapse” its energy consumption to avoid collapsing due to climate catastrophe. In a 2012 paper in Earth System Dynamics, he concluded therefore that “civilization may be in a double-bind.”

"We still have time to try and avert the scale of the disaster, but we must respond as we would in an emergency"

In a previous paper in Climatic Change, Garrett calculated that the world would need to switch to non-carbon renewable energy sources at a rate of about 2.1 percent a year just to stabilize emissions. “That comes out [equivalent] to almost one new nuclear power plant per day,” Garrett said. Although he sees this as fundamentally unrealistic, he concedes that a crash transition programme might help: “If society invests sufficient resources into alternative and new, non-carbon energy supplies, then perhaps it can continue growing without increasing global warming.”

Gergis goes further, insisting that it is not yet too late: “We still have time to try and avert the scale of the disaster, but we must respond as we would in an emergency. The question is, can we muster the best of our humanity in time?”

There is no straightforward answer to this question. To get there, we need to understand not just climate science, but the nature, dynamics, and causes of civilizational collapse.

Limits to Growth

One of the most famous scientific forecasts of collapse was conducted nearly 50 years ago by a team of scientists at MIT. Their "Limits to Growth" (LTG) model, known as "World3," captured the interplay between exponential population and economic growth, and the consumption of raw materials and natural resources. Climate change is an implicit feature of the model.

LTG implied that business-as-usual would lead to civilizational breakdown, sometime between the second decade and middle of the 21st century, due to overconsumption of natural resources far beyond their rate of renewal. This would escalate costs, diminish returns, and accelerate environmental waste, ecosystem damage, and global heating. With more capital diverted to the cost of extracting resources, less is left to invest in industry and other social goods, driving long-term economic decline and political unrest.

The forecast was widely derided when first published, and its core predictions were often wildly misrepresented by commentators who claimed it had incorrectly forecast the end of the world by the year 2000 (it didn’t).

Systems scientist Dennis Meadows had headed up the MIT team which developed the ‘World3’ model. Seven years ago, he updated the original model in light of new data with co-author Jorgen Randers, another original World3 team-member.

“For those who respect numbers, we can report that the highly aggregated scenarios of World3 still appear… to be surprisingly accurate,” they wrote in Limits to Growth: the 30 year update. “The world is evolving along a path that is consistent with the main features of the scenarios in LTG.”

One might be forgiven for suspecting that the old MIT team were just blowing their own horn. But a range of independent scientific reviews, some with the backing of various governments, have repeatedly confirmed that the LTG ‘base scenario’ of overshoot and collapse has continued to fit new data. This includes studies by Professor Tim Jackson of the University of Surrey, an economics advisor to the British government and Ministry of Defense; Australia’s federal government scientific research agency CSIRO; Melbourne University’s Sustainable Society Institute; and the Institute and Faculty of Actuaries in London.

“Collapse is not a very precise term. It is possible that there would be a general, drastic, uncontrolled decline in population, material use, and energy consumption by 2030 from climate change," Meadows told me when I asked him whether the LTG model shines any light on the risk of imminent collapse. "But I do not consider it to be a high probability event,” he said. Climate change would, however, “certainly suffice to alter our industrial society drastically by 2100.” It could take centuries or millennia for ecosystems to recover.

But there is a crucial implication of the LTG model that is often overlooked: what happens during collapse. During an actual breakdown, new and unexpected social dynamics might come into play which either worsen or even lessen collapse.

Those dynamics all depend on human choices. They could involve positive changes through reform in political leadership or negative changes such as regional or global wars.

That’s why modelling what happens during the onset of collapse is especially tricky, because the very process of collapse alters the dynamics of change.

Growth, complexity and resource crisis

What if, then, collapse is not necessarily the end? That’s the view of Ugo Bardi, of the University of Florence, who has developed perhaps the most intriguing new scientific framework for understanding collapse.

Earlier this year, Bardi and his team co-wrote a paper in the journal BioPhysical Economics and Resource Quality, drawing on the work of anthropologist Joseph Tainter at Utah State University’s Department of Environment and Society. Tainter’s seminal book, The Collapse of Complex Societies, concluded that societies collapse when their investments in social complexity reach a point of diminishing marginal returns.

Tainter studied the fall of the Western Roman empire, Mayan civilization, and Chaco civilization. As societies develop more complex and specialized bureaucracies to solve emerging problems, these new layers of problem-solving infrastructure generate new orders of problems. Further infrastructure is then developed to solve those problems, and the spiral of growth escalates.

As each new layer also requires a new ‘energy’ subsidy (greater consumption of resources), it eventually cannot produce enough resources to both sustain itself and resolve the problems generated. The result is that society collapses to a new equilibrium by shedding layers of complex infrastructure amassed in previous centuries. This descent takes between decades and centuries.

In his recent paper, Bardi used computer models to test how Tainter’s framework stood-up. He found that diminishing returns from complexity were not the main driver of a system’s decline; rather the decline in complexity of the system is due to diminishing returns from exploiting natural resources.

In other words, collapse is a result of a form of endless growth premised on the unsustainable consumption of resources, and the new order of increasingly unresolvable crises this generates.

In my view, we are already entering a perfect storm feedback loop of complex problems that existing systems are too brittle to solve. The collapse of Syria, triggered and amplified partly by climate crisis, did not end in Syria. Its reverberations have not only helped destabilize the wider Middle East, but contributed to the destabilization of Western democracies.

In January, a study in Global Environment Change found that the impact of “climatic conditions” on “drought severity” across the Middle East and North Africa amplified the “likelihood of armed conflict.” The study concluded that climate change therefore played a pivotal role in driving the mass asylum seeking between 2011 and 2015—including the million or so refugees who arrived in Europe in 2015 alone, nearly 50 percent of whom were Syrian. The upsurge of people fleeing the devastation of their homes was a gift to the far-right, exploited by British, French and other nationalists campaigning for the break-up of the European Union, as well as playing a role in Donald Trump’s political campaigning around The Wall.

To use my own terminology, Earth System Disruption (ESD) is driving Human System Destabilization (HSD). Preoccupied with the resulting political chaos, the Human System becomes even more vulnerable and incapable of ameliorating ESD. As ESD thus accelerates, it generates more HSD. The self-reinforcing cycle continues, and we find ourselves in an amplifying feedback loop of disruption and destabilization.

Beyond collapse

Is there a way out of this self-destructive amplifying feedback loop? Bardi’s work suggests there might be—that collapse can pave the way for a new, more viable form of civilization, whether or not countries and regions experience collapses, crises, droughts, famine, violence, and war as a result of ongoing climate chaos.

Bardi’s analysis of Tainter’s work extends the argument he first explored in his 2017 peer-reviewed study, The Seneca Effect: When Growth is Slow but Collapse is Rapid. The book is named after the Roman philosopher Lucius Annaeus Seneca, who once said that “fortune is of sluggish growth, but ruin is rapid.”

Bardi examines a wide-range of collapse cases across human societies (from the fall of past empires, to financial crises and large-scale famines), in nature (avalanches) and through artificial structures (cracks in metal objects). His verdict is that collapse is not a “bug,” but a “varied and ubiquitous phenomena” with multiple causes, unfolding differently, sometimes dangerously, sometimes not. Collapse also often paves the way for the emergence of new, evolutionary structures.

In an unpublished manuscript titled Before the Collapse: A Guide to the Other Side of Growth, due to be published by science publisher Springer-Nature next year, Bardi’s examination of the collapse and growth of human civilizations reveals that after collapse, a "Seneca Rebound" often takes place in which new societies grow, often at a rate faster than preceding growth rates.

This is because collapse eliminates outmoded, obsolete structures, paving the way for new structures to emerge which often thrive from the remnants of the old and in the new spaces that emerge.

He thus explains the Seneca Rebound as “as an engine that propels civilizations forward in bursts. If this is the case, can we expect a rebound if the world’s civilization goes through a new Seneca Collapse in the coming decades?”

Bardi recognizes that the odds are on a knife-edge. A Seneca Rebound after a coming collapse would probably have different features to what we have seen after past civilizational collapses and might still involve considerable violence, as past new civilizations often did—or may not happen at all.

"Very little if anything is being done to stop emissions and the general destruction of the ecosystem"

On our current trajectory, he said, “the effects of the destruction we are wreaking on the ecosystem could cause humans to go extinct, the ultimate Seneca Collapse.” But if we change course, even if we do not avoid serious crises, we might lessen the blow of a potential collapse. In this scenario, “the coming collapse will be just one more of the series of previous collapses that affected human civilizations: it might lead to a new rebound.”

It is in this possibility that Bardi sees the seeds of a new, different kind of civilization within the collapse of civilization-as-we-know-it.

I asked Bardi how soon he thought this collapse would happen. Although emphasizing that collapse is not yet inevitable, he said that a collapse of some kind within the next decade could be “very likely” if business-as-usual continues.

“Very little if anything is being done to stop emissions and the general destruction of the ecosystem,” Bardi said. “So, an ecosystemic collapse is not impossible within 10 years."

Yet he was also careful to point out that the worst might be avoided: “On the other hand, there are many elements interacting that may change things a little, a lot, or drastically. We don’t know how the system may react… maybe the system would react in a way that could postpone the worst.”

Release and renewal

The lesson is that even if collapse is imminent, all may not be lost. Systems theorist Jeremy Lent, author of The Patterning Instinct, draws on the work of the late University of Florida ecologist C. S. Holling, whose detailed study of natural ecosystems led him to formulate a general theory of social change known as the adaptive cycle.

Complex systems, whether in nature or in human societies, pass through four phases in their life cycle, writes Lent. First is a rapid growth phase of innovation and opportunity for new structures; second is a phase of stability and consolidation, during which these structures become brittle and resistant to change; third is a release phase consisting of breakdown, generating chaos and uncertainty; the fourth is reorganization, opening up the possibility that small, seemingly insignificant forces might drastically change the future of the forthcoming new cycle.

It is here, in the last two phases, that the possibility of triggering and shaping a Seneca Rebound becomes apparent. The increasing chaos of global politics, Lent suggests, is evidence that we are “entering the chaotic release phase,” where the old order begins to unravel. At this point, the system could either regress, or it could reorganize in a way that enables a new civilizational rebound. “This is a crucially important moment in the system’s life cycle for those who wish to change the predominant order.”

So as alarming as the mounting evidence of the risk of collapse is, it also indicates that we are moving into a genuinely new and indeterminate phase in the life cycle of our current civilization, during which we have a radical opportunity to mobilize the spread of new ideas that can transform societies.

I have been tracking the risks of collapse throughout my career as a journalist and systems theorist. I could not find any decisive confirmation that climate change will inevitably produce near-term societal collapse.

But the science does not rule this out as a possibility. Therefore, dismissing the risk of some sort of collapse—whether by end of century, mid-century, or within the next 10 years—contravenes the implications of the most robust scientific models we have.

All the scientific data available suggests that if we continue on our current course of resource exploitation, human civilization could begin experiencing collapse within coming decades. Exactly where and how such a collapse process might take off is not certain; and whether it is already locked in is as yet unknown. And as NASA’s Gavin Schmidt told me, local collapses are already underway.

From Syria to Brexit, the destabilizing socio-political impacts of ecosystemic collapse are becoming increasingly profound, far-reaching and intractable. In that sense, debating whether or not near-term collapse is inevitable overlooks the stark reality that we are already witnessing climate collapse.

And yet, there remains an almost total absence of meaningful conversation and action around this predicament, despite it being perhaps the most important issue of our times.

The upshot is that we don’t know for sure what is round the corner, and we need better conversations about how to respond to the range of possibilities. Preparation for worst-case scenarios does not require us to believe them inevitable, but vindicates the adoption of a rational, risk-based approach designed to proactively pursue the admirable goal for Deep Adaptation: safeguarding as much of society as possible.

Jem Bendell’s Deep Adaptation approach, he told me, is not meant to provide decisive answers about collapse, but to catalyze conversation and action.

“For the Deep Adaptation groups that I am involved with, we ask people to agree that societal collapse is either likely, inevitable or already unfolding, so that we can have meaningful engagement upon that premise,” he said. “Deep Adaptation has become an international movement now, with people mobilizing to share their grief, discuss what to commit to going forward, become activists, start growing food, all kinds of things.”

Confronting the specter of collapse, he insisted is not grounds to give-up, but to do more. Not later, but right now, because we are already out of time in terms of the harm already inflicted on the planet: “My active and radical hope is that we will do all kinds of amazing things to reduce harm, buy time and save what we can," he said. "Adaptation and mitigation are part of that agenda. I also know that many people will act in ways that create more suffering."

Most of all, the emerging science of collapse suggests that civilization in its current form, premised on endless growth and massive inequalities, is unlikely to survive this century. It will either evolve into or be succeeded by a new configuration, perhaps an “ecological civilization”, premised on a fundamentally new relationship with the Earth and all its inhabitants—or it will, whether slowly or more abruptly, regress and contract.

What happens next is still up to us. Our choices today will not merely write our own futures, they determine who we are, and what our descendants will be capable of becoming. As we look ahead, this strange new science hints to us at a momentous opportunity to become agents of change for an emerging paradigm of life and society that embraces, not exploits, the Earth. Because doing so is now a matter of survival.

This article was originally published by "Vice" -

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