the edge of cool

On a breezy Sunday morning in the marsh, the line between open water and thin ice sometimes disappears.

Ripple (click image for larger view)


Neon (click image for larger view)


Foot (click image for larger view)



Top photo: Reed (click here for larger image)

Energy From Waste, or Waste From Energy? A look at our local incinerator

Also published at

Is it an economic proposition to drive up and down streets gathering up bags of plastic fuel for an electricity generator?

Biking along the Lake Ontario shoreline one autumn afternoon, I passed the new and just-barely operational Durham-York Energy Centre and a question popped into mind. If this incinerator produces a lot of electricity, where are all the wires?

The question was prompted in part by the facility’s location right next to the Darlington Nuclear Generating Station. Forests of towers and great streams of high-voltage power lines spread out in three directions from the nuclear station, but there is no obvious visible evidence of major electrical output from the incinerator.

So just how much electricity does the Durham-York Energy Centre produce? Does it produce as much energy as it consumes? In other words, is it accurate to refer to the incinerator as an “energy from waste” facility, or is it a “waste from energy” plant? The first question is easy to answer, the second takes a lot of calculation, and the third is a matter of interpretation.

Before we get into those questions, here’s a bit of background.

The Durham-York Energy Centre is located about an hour’s drive east of Toronto on the shore of Lake Ontario, and was built at a cost of about $300 million. It is designed to take 140,000 tonnes per year of non-recyclable and non-compostable household garbage, burn it, and use the heat to power an electric generator. The garbage comes from the jurisdictions of adjacent regions, Durham and York (which, like so many towns and counties in Ontario, share names with places in England).

The generator powered by the incinerator is rated at 14 megawatts net, while the generators at Darlington Nuclear Station, taken together, are rated at 3500 megawatts net. The incinerator produces 1/250th the electricity that the nuclear plant produces. That explains why there is no dramatically visible connection between the incinerator and the provincial electrical grid.

In other terms, the facility produces surplus power equivalent to the needs of 10,000 homes. Given that Durham and York regions have fast-growing populations – more than 1.6 million at the 2011 census – the power output of this facility is not regionally significant.

A small cluster of transformers is part of the Durham-York Energy Centre.

Energy Return on Energy Invested

But does the facility produce more energy than it uses? That’s not so easy to determine. A full analysis of Energy Return On Energy Invested (EROEI) would require data from many different sources. I decided to approach the question by looking at just one facet of the issue:

Is the energy output of the generator greater than the energy consumed by the trucks which haul the garbage to the site?

Let’s begin with a look at the “fuel” for the incinerator. Initial testing of the facility showed better than expected energy output due to the “high quality of the garbage”, according to Cliff Curtis, commissioner of works for Durham Region (quoted in the Toronto Star). Because most of the paper, cardboard, glass bottles, metal cans, recyclable plastic containers, and organic material is picked up separately and sent to recycling or composting plants, the remaining garbage is primarily plastic film or foam. (Much of this, too, is technically recyclable, but in current market conditions that recycling would be carried out at a financial loss.)

Inflammatory material

If you were lucky to grow up in a time and a place where building fires was a common childhood pastime, you know that plastic bags and styrofoam burn readily and create a lot of heat. A moment’s consideration of basic chemistry backs up that observation.

Our common plastics are themselves a highly processed form of petroleum. One of the major characteristics of our industrial civilization is that we have learned how to suck finite resources of oil from the deepest recesses of the earth, process it in highly sophisticated ways, mold it into endlessly versatile – but still cheap! – types of packaging, use the packaging once, and then throw the solidified petroleum into the garbage.

If instead of burying the plastic garbage in a landfill, we burn it, we capture some of the energy content of that original petroleum. There’s a key problem, though. As opposed to a petroleum or gas well, which provides huge quantities of energy in one location, our plastic “fuel” is light-weight and dispersed through every city, town, village and rural area.

The question thus becomes: is it an economic proposition to drive up and down every street gathering up bags of plastic fuel for an electricity generator?

The light, dispersed nature of the cargo has a direct impact on garbage truck design, and therefore on the number of loads it takes to haul a given number of tonnes of garbage.

Because these trucks must navigate narrow residential streets they must have short wheelbases. And because they need to compact the garbage as they go, they have to carry additional heavy machinery to do the compaction. The result is a low payload:

Long-haul trucks and their contents can weigh 80,000 pounds. However, the shorter wheelbase of garbage and recycling trucks results in a much lower legal weight  — usually around 51,000 pounds. Since these trucks weigh about 33,000 pounds empty, they have a legal payload of about nine tons. (Source: How Green Was My Garbage Truck)

By my calculations, residential garbage trucks picking up mostly light packaging will be “full” with a load weighing about 6.8 tonnes. (The appendix to this article lists sources and shows the calculations.)

At 6.8 tonnes per load, it will require over 20,000 garbage truck loads to gather the 140,000 tonnes burned each year by the Durham-York Energy Centre.

How many kilometers will those trucks travel? Working from a detailed study of garbage pickup energy consumption in Hamilton, Ontario, I estimated that in a medium-density area, an average garbage truck route will be about 45 km. Truck fuel economy during the route is very poor, since there is constant stopping and starting plus frequent idling while workers grab and empty the garbage cans.

There is additional traveling from the base depot to the start of each route, from the end of the route to the drop-off point, and back to the depot.

I used the following map to make a conservative estimate of total kilometers.

Google map of York and Durham Region boundaries, with location of incinerator.

Because most of the garbage delivered to the incinerator comes from Durham Region, and the population of both Durham Region and York Region are heavily weighted to their southern and western portions, I picked a spot in Whitby as an “average” starting point. From that circled “X” to the other “X” (the incinerator location) is 30 kilometers. Using that central location as the starting and ending point for trips, I estimated 105 km total for each load. (45 km on the pickup route, 30 km to the incinerator, and 30 km back to the starting point).

Due to their weight and to their frequent stops, garbage trucks get poor fuel economy. I calculated an average .96 liters/kilometer.

The result: our fleet of trucks would haul 20,600 loads per year, travel 2,163,000 kilometers, and burn just over 2 million liters of diesel fuel.

Comparing diesel to electricity

How does the energy content of the diesel fuel compare to the energy output of the incinerator’s generator? Here the calculations are simpler though the numbers get large.

There are 3412 BTUs in a kilowatt-hour of electricity, and about 36,670 BTUs in a liter of diesel fuel.

If the generator produces enough electricity for 10,000 homes, and these homes use the Ontario average of 10,000 kilowatt-hours per year, then the generator’s output is 100,000,000 kWh per year.

Converted to BTUs, the 100,000,000 kWh equal about 341 billion BTUs.

The diesel fuel burned by the garbage trucks, on the other hand, has a total energy content of about 76 billion BTUs.

That answers our initial question: does the incinerator produce more energy than the garbage trucks consume in fuel? Yes it does, by a factor of about 4.5.

If we had tallied all the energy consumed by this operation, then we could say it had an Energy Return On Energy Invested ratio of about 4.5 – comparable to the bottom end of economically viable fossil fuel extraction operations such as Canadian tar sands mining. But of course we have considered just one energy input, the fuel burned by the trucks.

If we added in the energy required to build and maintain the fleet of garbage trucks, plus an appropriate share of the energy required to maintain our roads (which are greatly impacted by weighty trucks), plus the energy used to build the $300 million incinerator/generator complex, the EROEI would be much lower, perhaps below 1. In other words, there is little or no energy return in the business of driving around picking up household garbage to fuel a generator.

Energy from waste, or waste from energy

Finally, our third question: is this facility best referred to as “Energy From Waste” or “Waste From Energy”?

Looking at the big picture, “Waste From Energy” is the best descriptor. We take highly valuable and finite energy sources in the form of petroleum, consume a lot of that energy to create plastic packaging, ship that packaging to every household via a network of stores, and then use a lot more energy to re-collect the plastic so that we can burn it. The small amount of usable energy we get at the last stage is inconsequential.

From a municipal waste management perspective, however, things might look quite different. In our society people believe they have a god-given right to acquire a steady-stream of plastic-packaged goods, and a god-given right to have someone else come and pick up their resulting garbage.

Thus municipal governments are expected to pay for a fleet of garbage trucks, and find some way to dispose of all the garbage. If they can burn that garbage and recapture a modest amount of energy in the form of electricity, isn’t that a better proposition than hauling it to expensive landfill sites which inevitably run short of capacity?

Looked at from within that limited perspective, “Energy From Waste” is a fair description of the process. (Whether incineration is a good idea still depends, of course, on the safety of the emissions from modern garbage incinerators – another controversial issue.)

But if we want to seriously reduce our waste, the place to focus is not the last link in the chain – waste disposal. The big problem is our dependence on a steady stream of products produced from valuable fossil fuels, which cannot practically be re-used or even recycled, but only down-cycled once or twice before they end up as garbage.

Top photo: Durham-York Energy Centre viewed from south east. 

APPENDIX – Sources and Calculations

Capacity and Fuel Economy of Garbage Trucks

There are many factors which determine the capacity and fuel economy of garbage trucks, including: type of truck (front-loading, rear-loading, trucks with hoists for large containers vs. trucks which are loaded by hand by workers picking up individual bags); type of route (high density urban areas with large businesses or apartment complex vs. low-density rural areas); and type of garbage (mixed waste including heavy glass, metal and wet organics vs. light but bulky plastics and foam).

Although I sent an email inquiry to Durham Waste Department asking about capacity and route lengths of garbage trucks, I didn’t receive a response. So I looked for published studies which could provide figures that seemed applicable to Durham Region.

A major source was the paper “Fuel consumption estimation for kerbside municipal solid waste (MSW) collection activities”, in Waste Management & Research, 2010, accessed via

This study found that “Within the ‘At route’ stage, on average, the normal garbage truck had to travel approximately 71.9 km in the low-density areas while the route length in high-density areas is approximately 25 km.” Since Durham Region is a mix of older dense urban areas, newer medium-density urban sprawl, and large rural areas, I estimated an average “medium-density area route” of 45 km.

The same study found an average fuel economy of .335 liters/kilometer for garbage trucks when they were traveling from depot to the beginning of a route. The authors found that fuel economy in the “At Route” portion (with frequent stops, starts, and idling) was 1.6 L/km for high-density areas, and 2.0 L/km in low-density areas; I split the difference and used 1.8 L/km as the “At Route” fuel consumption.

As to the volumes of trucks and the weight of the garbage, I based on estimates on figures in “The Workhorses of Waste”, published by MSW Management Magazine and WIH Resource Group. This article states: “Rear-end loader capacities range from 11 cubic yards to 31 cubic yards, with 25 cubic yards being typical.”

Since rear-end loader trucks are the ones I usually see in residential neighborhoods, I used 25 cubic yards as the average volume capacity.

The same article discusses the varying weight factors:

The municipal solid waste deposited at a landfill has a density of 550 to over 650 pounds per cubic yard (approximately 20 to 25 pounds per cubic foot). This is the result of compaction within the truck during collection operations as the truck’s hydraulic blades compress waste that has a typical density of 10 to 15 pounds per cubic foot at the curbside. The in-vehicle compaction effort should approximately double the density and half the volume of the collected waste. However, these values are rough averages only and can vary considerably given the irregular and heterogeneous nature of municipal solid waste.

In Durham Region the heavier paper, glass, metal and wet organics are picked up separately and hauled to recycling depots, so it seems reasonable to assume that the remaining garbage hauled to the incinerator would not be at the dense end of the “550 to over 650 pounds per cubic yard” range. I used what seems like a conservative estimate of 600 pounds per cubic yard.

(I am aware that in some cases garbage may be off-loaded at transfer stations, further compacted, and then loaded onto much larger trucks for the next stage of transportation. This would impact the fuel economy per tonne in transportation, but would involve additional fuel in loading and unloading. I would not expect that the overall fuel use would be dramatically different. In any case, I decided to keep the calculations (relatively) simple and so I assumed that one type of truck would pick up all the garbage and deliver it to the final drop-off.)

OK, now the calculations:

Number of truckloads

25 cubic yard load X 600 pounds / cubic yard = 15000 pounds per load

15000 pounds ÷ 2204 lbs per tonne = 6.805 tonnes per load

140,000 tonnes burned by incinerator ÷ 6.805 tonnes per load = 20,570 garbage truck loads

Fuel burned:

45 km per “At Route” portion X 20,570 loads = 925,650 km “At Route”

1.8 L/km fuel consumption “At Route” x 925,650 km = 1,666,170 liters

60 km per load traveling to and from incinerator

60 km x 20,570 loads = 1,234,200 km traveling

.335 L/km travelling fuel consumption X 1,234,200 km = 413,457 liters

1,666,170 liters + 413,457 liters = 2,027,627 liters total fuel used by garbage trucks

As a check on the reasonableness of this estimate, I calculated the average fuel economy from the above figures:

20,570 loads x 105 km per load = 2,159,850 km per year

2,079,625 liters fuel ÷ 2,159,850 km = .9629 L/km

This compares closely with a figure published by the Washington Post, which said municipal garbage trucks get just 2-3 mpg. The middle of that range, 2.5 miles per US gallon, equals 1.06 L/km.

Electricity output of the generator power by the incinerator

With a rated output of 14 megawatts, the generator could produce about 122 megawatt-hours of electricity per year – if it ran at 100% capacity, every hour of the year. (14,000 kW X 24 hours per day X 365 days = 122,640,000 kWh.) That’s clearly unrealistic.

However, the generator’s operators say it puts out enough electricity for 10,000 homes. The Ontario government says the average residential electricity consumption is 10,000 kWh.

10,000 homes X 10,000 kWh per year = 100,000,000 kWh per year.

This figure represents about 80% of the maximum rated capacity of the incinerator’s generator, which sounds like a reasonable output, so that’s the figure I used.

Down to the waterline

Water levels in Bowmanville Marsh were low in the fall and the water has dropped lower with each freeze/thaw cycle. That means there are new sights to see, and as long as the mud is frozen the whole marsh is easily accessible.

These photos are from Sunday morning, January 15.


Stripe (click for larger version)


All that glisters (click for larger version)


Shroom (click for larger version)


Raccoon Road (click for larger version)


Rift (click for larger version)

Top photo: Peaks (click here for larger version)

Fake news as official policy

Also published at

Faced with simultaneous disruptions of climate and energy supply, industrial civilization is also hampered by an inadequate understanding of our predicament. That is the central message of Nafeez Mosaddeq Ahmed’s new book Failing States, Collapsing Systems: BioPhysical Triggers of Political Violence.

In the first part of this review, we looked at the climate and energy disruptions that have already begun in the Middle East, as well as the disruptions which we can expect in the next 20 years under a “business as usual” scenario. In this installment we’ll take a closer look at “the perpetual transmission of false and inaccurate knowledge on the origins and dynamics of global crises”.

While a clear understanding of the real roots of economies is a precondition for a coherent response to global crises, Ahmed says this understanding is woefully lacking in mainstream media and mainstream politics.

The Global Media-Industrial Complex, representing the fragmented self-consciousness of human civilization, has served simply to allow the most powerful vested interests within the prevailing order to perpetuate themselves and their interests ….” (Failing States, Collapsing Systems, page 48)

Other than alluding to powerful self-serving interests in fossil fuels and agribusiness industries, Ahmed doesn’t go into the “how’s” and “why’s” of their influence in media and government.

In the case of misinformation about the connection between fossil fuels and climate change, much of the story is widely known. Many writers have documented the history of financial contributions from fossil fuel interests to groups which contradict the consensus of climate scientists. To take just one example, Inside Climate News revealed that Exxon’s own scientists were keenly aware of the dangers of climate change decades ago, but the corporation’s response was a long campaign of disinformation.

Yet for all its nefarious intent, the fossil fuel industry’s effort has met with mixed success. Nearly every country in the world has, at least officially, agreed that carbon-emissions-caused climate change is an urgent problem. Hundreds of governments, on national, provincial or municipal levels, have made serious efforts to reduce their reliance on fossil fuels. And among climate scientists the consensus has only grown stronger that continued reliance on fossil fuels will result in catastrophic climate effects.

When it comes to continuous economic growth unconstrained by energy limitations, the situation is quite different. Following the consensus opinion in the “science of economics’, nearly all governments are still in thrall to the idea that the economy can and must grow every year, forever, as a precondition to prosperity.

In fact, the belief in the ever-growing economy has short-circuited otherwise well-intentioned efforts to reduce carbon emissions. Western politicians routinely play off “environment’ and ”economy” as forces that must be balanced, meaning they must take care not to cut carbon emissions too fast, lest economic growth be hindered. To take one example, Canada’s Prime Minister Justin Trudeau claims that expanded production of tar sands bitumen will provide the economic growth necessary to finance the country’s official commitments under the Paris Accord.

As Ahmed notes, “the doctrine of unlimited economic growth is nothing less than a fundamental violation of the laws of physics. In short, it is the stuff of cranks – yet it is nevertheless the ideology that informs policymakers and pundits alike.” (Failing States, Collapsing Systems, page 90)

Why does “the stuff of cranks” still have such hold on the public imagination? Here the work of historian Timothy Mitchell is a valuable complement to Ahmed’s analysis.

Mitchell’s 2011 book Carbon Democracy outlines the way “the economy” became generally understood as something that could be measured mostly, if not solely, by the quantities of money that exchanged hands. A hundred years ago, this was a new and controversial idea:

In the early decades of the twentieth century, a battle developed among economists, especially in the United States …. One side wanted economics to start from natural resources and flows of energy, the other to organise the discipline around the study of prices and flows of money. The battle was won by the second group …..” (Carbon Democracy, page 131)

A very peculiar circumstance prevailed while this debate raged: energy from petroleum was cheap and getting cheaper. Many influential people, including geologist M. King Hubbert, argued that the oil bonanza would be short-lived in a historical sense, but their arguments didn’t sway corporate and political leaders looking at short-term results.

As a result a new economic orthodoxy took hold by the middle of the 20th century. Petroleum seemed so abundant, Mitchell says, that for most economists “oil could be counted on not to count. It could be consumed as if there were no need to take account of the fact that its supply was not replenishable.”

He elaborates:

the availability of abundant, low-cost energy allowed economists to abandon earlier concerns with the exhaustion of natural resources and represent material life instead as a system of monetary circulation – a circulation that could expand indefinitely without any problem of physical limits. Economics became a science of money ….” (Carbon Democracy, page 234)

This idea of the infinitely expanding economy – what Ahmed terms “the stuff of cranks” – has been widely accepted for approximately one human life span. The necessity of constant economic growth has been an orthodoxy throughout the formative educations of today’s top political leaders, corporate leaders and media figures, and it continues to hold sway in the “science of economics”.

The transition away from fossil fuel dependence is inevitable, Ahmed says, but the degree of suffering involved will depend on how quickly and how clearly we get on with the task. One key task is “generating new more accurate networks of communication based on transdisciplinary knowledge which is, most importantly, translated into user-friendly multimedia information widely disseminated and accessible by the general public in every continent.” (Failing States, Collapsing Systems, page 92)

That task has been taken up by a small but steadily growing number of researchers, activists, journalists and hands-on practitioners of energy transition. As to our chances of success, Ahmed allows a hint of optimism, and that’s a good note on which to finish:

The systemic target for such counter-information dissemination, moreover, is eminently achievable. Social science research has demonstrated that the tipping point for minority opinions to become mainstream, majority opinion is 10% of a given population.” (Failing States, Collapsing Systems, page 92)


Top image: M. C. Escher’s ‘Waterfall’ (1961) is a fanciful illustration of a finite source providing energy without end. Accessed from

Etchings at a winter sunrise

Six photos, taken on Bowmanville Marsh and the Lake Ontario shoreline. Saturday morning, January 7.


Goose Ghost (click for full-size image)


Zebra mussel (click for full-size image)


Zebra mussel (click for full-size image)


Surface Composition (click for full-size image)


Luminated feather (click for full-size image)


Top photo: Feather, at dawn (click here for full-size image)

Fake news, failed states

Also published at

Many of the violent conflicts raging today can only be understood if we look at the interplay between climate change, the shrinking of cheap energy supplies, and a dominant economic model that refuses to acknowledge physical limits.

That is the message of Failing States, Collapsing Systems: BioPhysical Triggers of Political Violence, a thought-provoking new book by Nafeez Mosaddeq Ahmed. Violent conflicts are likely to spread to all continents within the next 30 years, Ahmed says, unless a realistic understanding of economics takes hold at a grass-roots level and at a nation-state policy-making level.

The book is only 94 pages (plus an extensive and valuable bibliography), but the author packs in a coherent theoretical framework as well as lucid case studies of ten countries and regions.

As part of the Springer Briefs In Energy/Energy Analysis series edited by Charles Hall, it is no surprise that Failing States, Collapsing Systems builds on a solid grounding in biophysical economics. The first few chapters are fairly dense, as Ahmed explains his view of global political/economic structures as complex adaptive systems inescapably embedded in biophysical processes.

The adaptive functions of these systems, however, are failing due in part to what we might summarize with four-letter words: “fake news”.

inaccurate, misleading or partial knowledge bears a particularly central role in cognitive failures pertaining to the most powerful prevailing human political, economic and cultural structures, which is inhibiting the adaptive structural transformation urgently required to avert collapse.” (Failing States, Collapsing Systems: BioPhysical Triggers of Political Violence, by Nafeez Mosaddeq Ahmed, Springer, 2017, page 13)

We’ll return to the failures of our public information systems. But first let’s have a quick look at some of the case studies, in which the explanatory value of Ahmed’s complex systems model really comes through.

In discussing the rise of ISIS in the context war in Syria and Iraq, Western media tend to focus almost exclusively on political and religious divisions which are shoehorned into a “war on terror” framework. There is also an occasional mention of the early effects of climate change. While not discounting any of these factors, Ahmed says that it is also crucial to look at shrinking supplies of cheap energy.

Prior to the onset of war, the Syrian state was experiencing declining oil revenues, driven by the peak of its conventional oil production in 1996. Even before the war, the country’s rate of oil production had plummeted by nearly half, from a peak of just under 610,000 barrels per day (bpd) to approximately 385,000 bpd in 2010.” (Failing States, Collapsing Systems, page 48)

Similarly, Yemen’s oil production peaked in 2001, and had dropped more than 75% by 2014.

While these governments tried to cope with climate change effects including water and food shortages, their oil-export-dependent budgets were shrinking. The result was the slashing of basic social service spending when local populations were most in need.

That’s bad enough, but the responses of local and international governments, guided by “inaccurate, misleading or partial knowledge”, make a bad situation worse:

While the ‘war on terror’ geopolitical crisis-structure constitutes a conventional ‘security’ response to the militarized symptoms of HSD [Human Systems Destabilization] (comprising the increase in regional Islamist militancy), it is failing to slow or even meaningfully address deeper ESD [Environmental System Disruption] processes that have rendered traditional industrialized state power in these countries increasingly untenable. Instead, the three cases emphasized – Syria, Iraq, and Yemen – illustrate that the regional geopolitical instability induced via HSD has itself hindered efforts to respond to deeper ESD processes, generating instability and stagnation across water, energy and food production industries.” (Failing States, Collapsing Systems, page 59)

This pattern – militarized responses to crises that beget more crises – is not new:

A 2013 RAND Corp analysis examined the frequency of US military interventions from 1940 to 2010 and came to the startling conclusion: not only that the overall frequency of US interventions has increased, but that intervention itself increased the probability of an ensuing cluster of interventions.” (Failing States, Collapsing Systems, page 43)

Ahmed’s discussions of Syria, Iraq, Yemen, Nigeria and Egypt are bolstered by the benefits of hindsight. His examination of Saudi Arabia looks a little way into the future, and what he foresees is sobering.

He discusses studies that show Saudi Arabia’s oil production is likely to peak in as soon as ten years. Yet the date of the peak is only one key factor, because the country’s steadily increasing internal demand for energy means there is steadily less oil left for export.

For Saudi Arabia the economic crunch may be severe and rapid: “with net oil revenues declining to zero – potentially within just 15 years – Saudi Arabia’s capacity to finance continued food imports will be in question.” For a population that relies on subsidized imports for 80% of its food, empty government coffers would mean a life-and-death crisis.

But a Saudi Arabia which uses up all its oil internally would have major implications for other countries as well, in particular China and India.

like India, China faces the problem that as we near 2030, net exports from the Middle East will track toward zero at an accelerating rate. Precisely at the point when India and China’s economic growth is projected to require significantly higher imports of oil from the Middle East, due to their own rising domestic energy consumption requirement, these critical energy sources will become increasingly unavailable on global markets.” (Failing States, Collapsing Systems, page 74)

Petroleum production in Europe has also peaked, while in North America, conventional oil production peaked decades ago, and the recent fossil fuel boomlet has come from expensive, hard-to-extract shale gas, shale oil, and tar sands bitumen. For both Europe and North America, Ahmed forecasts, the time is fast approaching when affordable high-energy fuels are no longer available from Russia or the Middle East. Without successful adaptive responses, the result will be a cascade of collapsing systems:

Well before 2050, this study suggests, systemic state-failure will have given way to the irreversible demise of neoliberal finance capitalism as we know it.” (Failing States, Collapsing Systems, page 88)

Are such outcomes inescapable? By no means, Ahmed says, but adequate adaptive responses to our developing predicaments are unlikely without a recognition that our economies remain inescapably embedded in biophysical processes. Unfortunately, there are powerful forces working to prevent the type of understanding which could guide us to solutions:

vested interests in the global fossil fuel and agribusiness system are actively attempting to control information flows to continue to deny full understanding in order to perpetuate their own power and privilege.” (Failing States, Collapsing Systems, page 92)

In the next installment, Fake News as Official Policy, we’ll look at the deep roots of this misinformation and ask what it will take to stem the tide.

Top photo: Flying over the Trans-Arabian Pipeline, 1950. From