Brazil’s Carvalho To Lead Seabed-Mining Authority

Brazil’s Carvalho To Lead Seabed-Mining Authority

Editor’s note: Changing the face of a globalist, imperialist organization whose mandate is the equitable exploitation of “the common heritage of mankind” will not stop deep sea mining. We will need to stop the first attempt at enclosure and destruction of the sea floor, by any means necessary. Delegitimize, discredit and scuttle this operation. If you would like to help contact Deep Sea Defenders.


Brazilian oceanographer Leticia Carvalho will be the next secretary-general of the International Seabed Authority (ISA), the U.N.-mandated organization that oversees deep-sea mining activities in international waters. She won the election with 79 votes, while her predecessor, 64-year-old Michael Lodge, who served as the ISA’s secretary-general for two terms, received only 34 votes. Lodge has previously been accused of siding with mining companies, which went against the duty of the ISA secretariat to remain neutral and may have influenced the direction of the prospective deep-sea mining industry.
Carvalho previously told Mongabay that she would work to make the ISA more transparent and rebuild trust within the organization.

Brazilian oceanographer Leticia Carvalho has been named the next secretary-general of the International Seabed Authority (ISA) after winning an election that could change the course of the deep-sea mining industry.

Carvalho, 50, who currently works as an international civil servant for the United Nations Environment Programme (UNEP), was declared the winner of the race on Aug. 2, the last day of the twenty-ninth assembly meeting of the ISA. She won the election with 79 votes, while her predecessor, 64-year-old Michael Lodge, who served as the ISA’s secretary-general for two terms, received only 34 votes.

Carvalho will begin her term at the ISA, the U.N.-mandated organization that oversees deep-sea mining activities in international waters, in January 2025. She will be the first woman, the first oceanographer, and the first representative from Latin America to serve in this position.

Commercial-scale deep-sea mining has not yet begun anywhere in the world, but mining companies have been pushing for an imminent start of this activity — and Lodge has been accused of doing more than he should to help this process along.

During his time as secretary-general between 2016 and 2024, Lodge pushed for the finalization of a mining code, a set of rules that would allow deep-sea mining exploitation to begin. However, this code was not ultimately finished over his tenure. Lodge has also been accused of advocating for mining companies, which goes against the ISA secretariat’s duty of remaining neutral and keeping the ISA’s processes and procedures unnecessarily opaque. More recently, Lodge was also embroiled in allegations that he misused agency funds and that one of his supporters tried to bribe Carvalho to drop out of the election in exchange for another high-level position within the ISA. Lodge, however, has refuted all of these claims.

In a previous interview with Mongabay, Carvalho said that if elected, she would work to make the ISA more transparent and rebuild trust within the organization.

“For me, the mission of the ISA and the leadership of the ISA is to be a trustee — an honest broker that brings decision-makers together, offering space that belongs to the whole of humankind,” Carvalho told Mongabay in July. “It should offer transparency of its own procedures, on the decision-making processes, on the management of the budgets — all of this.”

One mining company, Canadian-based The Metals Company (TMC), has repeatedly expressed its intention to apply for an exploitation license later this year, even before the mining code is finished. However, Carvalho has said that she believes granting such a license before regulations are in place would be a “source of litigation.”

Advocates of deep-sea mining say seabed minerals are needed to fulfill metal shortages and provide materials for renewable energy technologies like electric car batteries. Yet critics say deep-sea minerals are unnecessary for such technologies and that deep-sea mining could irreparably damage the seabed and overall marine environment.

A Deep-sea Exploration by NOAA. The nodules seen here and strewn across the seafloor were deposited here millions of years ago and grow about 2 millimeters every million years.
A Deep-sea Exploration by NOAA. The nodules seen here and strewn across the seafloor were deposited here millions of years ago and grow about 2 millimeters every million years. Image by NOAA.

A recent study in Nature found that polymetallic nodules, metal-rich rocks found on the seafloor, produced a kind of “dark oxygen,” which experts say gives valid reason for slowing down the race to commercially extract nodules from the deep ocean.

During the recent ISA meetings, Austria, Guatemala, Honduras, Malta and Tuvalu joined a group of nations calling for a moratorium or precautionary pause on deep-sea mining. There are now 32 countries calling for such measures.

Matt Gianni, co-founder of the Deep Sea Conservation Coalition, a group of NGOs that campaign against deep-sea mining, said he was surprised by the number of country delegates that came to this year’s ISA meeting or sent in their proxy votes for the election, and also that “such a large majority” voted for Carvalho.

“This is a historic moment for the ISA and we congratulate Leticia Carvalho and the government of Brazil [for] her election,” Gianni said in a statement. “The ISA has an opportunity to champion a new way forward for sound ocean governance that prioritizes the precautionary principle and secures the health of the deep sea and its benefits for future generations.”

Elizabeth Claire Alberts is a senior staff writer for Mongabay’s Ocean Desk. Follow her on Twitter @ECAlberts.

Photo by Yousef Espanioly on Unsplash

 

Coastal Restoration: Saving Sand

Coastal Restoration: Saving Sand

Editor’s note: It’s a coast – not a beach, we forget that when our society talks about going to the beach. A beach is for basking in the sun, getting a drink, and dabbling in the water. But a coast is far more than an entertainment place for humans, it’s a habitat for a variety of animals and plants. Sand mining is a threat to these ecosystems and criminals operate it illegally. Construction companies need sand for their concrete as the demand for buildings soars. They seal the planet by destroying coastlines – and beaches.

While beaches are being stolen in poor places, they are being nourished(replenished) in wealthy places. Beach nourishment is the process of placing additional sediment on a beach or in the nearshore. A wider and higher beach can provide storm protection for coastal structures. Sediment is commonly dredged offshore and pumped directly onto the beach, dumped nearshore by a hopper dredge, or occasionally sourced from an inland location. It is an exercise in futility that destroys natural ecosystems and subsidizes wealthy beachfront homeowners at taxpayers’ expense, particularly as worsening storms resulting from climate change demand investment in more permanent solutions to beach erosion. The sea level will rise and people living there will have to move.

It is time to stop building infrastructure and trying to control nature.


By Melissa Gaskill/The Revelator

Increasing demand for this seemingly abundant and common material harms human and natural communities — and fuels a lucrative and dangerous illegal industry.

Coastal ecosystems — including oyster reefs, sandy beaches, mangrove forests and seagrass beds — provide important habitat for marine life and food and recreation for people. They also protect shorelines from waves and storms. But these precious systems face serious threats. This article looks at what put them at risk, along with examples of efforts to restore and protect important coastal ecosystems around the world.

We need to talk about sand

Most people don’t realize that these humble grains — that ubiquitous stuff of vacations, ant farms and hourglasses — are the second-most used natural resource in the world after water. According to a 2019 report from the United Nations Environment Programme, we use more than 55 billion tons of it per year — nearly 40 pounds per person per day.

And a lot of that sand comes from illegal activity, involving criminal gangs who mine, smuggle, and kill for the precious material.

The Building Blocks of Modern Society

Sand — legal or otherwise — gets used to enhance beaches, extract petroleum through hydraulic fracking, fill land under buildings, and make computer chips.

But the biggest amount by far — an estimated 85% of the sand mined globally — goes into making concrete. Concrete combines two key ingredients: cement, a binding agent made from calcium or other substances, and aggregate, which is either sand or a combination of sand and gravel. Quality concrete requires jagged and angular aggregate grains — a quality found in only a tiny fraction of the worlds’ sand, most of it on beaches and in rivers. This sand also is easy and cheap to mine, and it’s located close to much of the construction taking place around the world.

According to the United Nations Environment Programme, world consumption of aggregate for all uses exceeds 40 billion metric tons (44 billion U.S. tons) a year — an estimate that’s likely on the conservative side and represents about twice the amount of sediment carried annually by all the world’s rivers. (Sediment from land rocks is the source of most coastal sand, which also comes from shells and marine organisms pulverized by waves, the digestive tracts of coral-eating fish, and the remains of tiny creatures called foraminifera.)

Not surprisingly, UNEP calls management of sand one of the greatest sustainability challenges of the 21st century.

Deserted sand and gravel mining

The organization also warns about sand mining’s serious consequences for humans and the natural environment.

Removing beach sand leaves coastal structures more vulnerable to erosion even as climate change raises sea levels and makes storms more intense. Transporting sand generates carbon dioxide emissions. Sand mining has political and cultural consequences, including effects on the tourism industry, and creates noise and air pollution.

Coastal sand mining also destroys complex ecosystems. The microorganisms, crabs, and clams that live in beach sand are important food sources for birds. Sea turtles and several bird species nest on sandy beaches. Seagrass, an important food source and habitat for marine residents, needs sandy ocean floor to grow. Stretches of underwater sand provide habitat for sea stars, sea cucumbers, conchs, and other critters, and are feeding grounds for flounder, rays, fish, and sharks.

Removing sand also affects water quality in the ocean and depletes groundwater.

Sand Mining Objections

Stolen Sand

Yet this harm is not the only issue. Increasing demand for sand has created a vast illegal industry resembling the organized criminal drug trade, including the same violence, black markets, and piles of money — an estimated $200 to $350 billion a year. Of all the sand extracted globally every year, only about 15 billion metric tons are legally traded, according to a report from the Global Initiative Against Transnational Organized Crime.

Pascal Pedruzzi, director of UNEP’s Global Resource Information Database-Geneva, became aware of illegal sand mining when the Jamaican government asked UNEP in 2014 to find out why the island had a serious beach erosion problem.

“There was a lot we didn’t know about sand extraction, including how much was being taken,” he says.

Or from how many places: Sand is mined from coastal environments in at least 80 countries on six continents, according to the 2022 book Vanishing Sands, written by several geologists and other experts on coastal management and land rights.

The book outlines a litany of sand crimes, from seemingly small to massive. In Sardinia, Italy, airport officials have seized about 10 tons of sand over 10 years, much of it carried in thousands of individual half-quart bottles. In Morocco, criminals removed as many as 200 dump trucks of sand a day from massive dunes lining the Atlantic coast.

According to Africa’s Institute for Security Studies, illegal sand mining in Morocco is run by a syndicate second in size only to the country’s drug mafia. It involves corrupt government and law enforcement officials and foreign companies. Much of the Moroccan sand, for example, ends up in buildings in Spain.

In India demand for sand tripled from 2000 to 2017, creating a market worth 150 billion rupees, just over $2 billion. Multiple diverse and competing “sand mafias” run mining sites surrounded by armed private security guards. Their weapons likely are obtained illegally, given the difficult process of acquiring guns legally in India.

Photo by Sumaira Abdulali – Own work, CC BY-SA 4.0

The NGO South Asia Network on Dams, Rivers and People reports hundreds of deaths and injuries related to illegal sand mining in India each year, including citizens (adults and children), journalists, activists, government officials, and law enforcement.

There are similar stories in Bangladesh, Cambodia, elsewhere in Africa, and in the Caribbean — almost everywhere sandy coastal areas can be found.

How to Solve the Problem

UNEP has begun tackling the problem of sand mining, putting forth ten recommendations that include creating international standards for extracting sand from the marine environment, reducing the use of sand by using substitutes, and recycling products made with sand.

While these recommendations target legal sand mining, more responsible management and reduced overall demand also should make illegal mining less lucrative and, therefore, less common.

“The good news is there’s a long list of solutions,” says Peduzzi. “We start by stopping the waste of sand. We can make the life of buildings longer, by retrofitting them instead of knocking them down. Maybe change the use of a building over time, as a school first and then 50 years later, a place for elderly people. When a building needs to be destroyed, crush and reuse the concrete. Build with wood, bricks, adobe, and straw.”

Building with straw also could reduce burning of crop waste. Every year, India produces 500 million tons of straw but burns 140 million tons as “excess.” One company there, Strawcture Eco, is using straw to create wall and ceiling panels that are fire resistant, insulating, and sustainable.

Alternatives to sand in concrete include ash from waste incineration and aluminum smelting waste. Peduzzi notes that ash creates concrete that is about 10% less solid, but points out, “that is still pretty good. You can use it to make buildings, but maybe not a bridge.”

The UNEP report notes that involvement from industry, the private sector, and civil society is vital in solving the problem. For example, shifting away from building with concrete will require changing the way architects and engineers are trained, acceptance by building owners, and new laws and regulations.

“We rely on sand, as a commodity,” Peduzzi says. “But we also need to realize its ecosystem services. We must be wiser about how we use it.”

UNEP hopes to collect solutions into a single, accessible online location (although it currently lacks funding for the effort). The idea is to create a hub for policies and technological solutions, Peduzzi says, and to develop best practices for them. The Global Initiative report on India also calls for a website for tracking illegal sand mining hosted by a think-tank or journalism agency — a sort of crime-spotters portal where people could anonymously upload evidence.

Shifting Sands, Shifting Thinking

William Neal, an emeritus professor at Grand Valley State University in Michigan and one of the authors of Vanishing Sands, suggests in an email that finding sand substitutes is not enough. Coastal communities, he says, need to retreat from rising seas rather than build more hard structures such as seawalls. This “shoreline engineering” often destroys the very beaches it is intended to save, he explains, and the long-term cost of saving property through engineering often ends up exceeding the value of the property. Seawalls also tend to simply shift water elsewhere, potentially causing flooding and significant damage along other parts of the shoreline.

Peduzzi also espouses shifts in thinking, including how we get around in cities.

“Instead of building roads for cars, build subways,” he says. “That moves people faster and gets away from fossil fuels. The icing on the cake is that when digging subway tunnels, you are getting rocks, generating this material instead of using it. Cars are not sustainable — not the material to make a car itself or the roads and parking lots.”

Without systemic changes, the problem of sand removal is only going to grow bigger as the population increases and people continue to migrate from rural to urban areas, increasing the demand for infrastructure like roads and buildings.

“The problem has been overlooked,” Peduzzi warns. “People need to realize that sand is just another story of how dependent we are on natural resources for development.”


Melissa Gaskill is a freelance science writer based in Austin, Texas, whose work has appeared in Scientific American, Mental Floss, Newsweek, Alert Diver and many other publications. She is the co-author of A Worldwide Travel Guide to Sea Turtles and author of Pandas to Penguins: Ethical Encounters with Animals at Risk.

The Revelator is an initiative of the Center for Biological Diversity.

Title photo: Calistemon/Wikimedia Commons CC-BY-SA-4.0

 

Cooling the Earth by Reflecting Sunlight Back to Space

Cooling the Earth by Reflecting Sunlight Back to Space

Editor’s note: As humanity, we’ve come so far as to consider – after having wreaked havoc on a perfectly functioning ecosystems on a flourishing planet – that producing clouds from seawater is a good idea. It sounds too bizarre to be true and even hilarious – but it’s deeply sad.
There are indeed scientists who get paid for researching not in a laboratory but in real life situations, how millions of aircrafts and ships can bring tons of aerosols into the sky to prevent the sun from doing what she does: shining to provide sunlight.
It seems as if some start-up youngsters with a hangover after pulling an all-nighter came up with that idea. But no, the proponents are adult scholars and they mean it.
With this sci-fi scenario we witness a degenerate humanity completely in denial over what is actually happening. A cut from the living and breathing world around us, inducing the immersion into minds of madness, who try to techno-fix us into oblivion.
It’s like hiring a beautician to put makeup on a person that is bleeding out, while the doctor stands there doing nothing.
It’s like calling a friend when you’re in an emergency situation instead of calling the ambulance.
It’s like breathing in while being under water.
Can we please stop rivaling the sun? Thanks.

 


Not a Bright Idea: Cooling the Earth by Reflecting Sunlight Back to Space

By James Kerry, Aarti Gupta and Terry Hughes/The Conversation

The United Nations Environment Assembly this week considered a resolution on solar radiation modification, which refers to controversial technologies intended to mask the heating effect of greenhouse gases by reflecting some sunlight back to space.

Proponents argue the technologies will limit the effects of climate change. In reality, this type of “geoengineering” risks further destabilising an already deeply disturbed climate system. What’s more, its full impacts cannot be known until after deployment.

The draft resolution initially called for the convening of an expert group to examine the benefits and risks of solar radiation modification. The motion was withdrawn on Thursday after no consensus could be reached on the controversial topic.

A notable development was a call from some Global South countries for “non-use” of solar radiation modification. We strongly support this position. Human-caused climate change is already one planetary-scale experiment too many – we don’t need another.

A risky business

In some circles, solar geoengineering is gaining prominence as a response to the climate crisis. However, research has consistently identified potential risks posed by the technologies such as:

Here, we discuss several examples of solar radiation modification which exemplify the threats posed by these technologies. These are also depicted in the graphic below.

A load of hot air

In April 2022, an American startup company released two weather balloons into the air from Mexico. The experiment was conducted without approval from Mexican authorities.

The intent was to cool the atmosphere by deflecting sunlight. The resulting reduction in warming would be sold for profit as “cooling credits” to those wanting to offset greenhouse gas pollution.

Appreciably cooling the climate would, in reality, require injecting millions of metric tons of aerosols into the stratosphere, using a purpose-built fleet of high-altitude aircraft. Such an undertaking would alter global wind and rainfall patterns, leading to more drought and cyclones, exacerbating acid rainfall and slowing ozone recovery.

Once started, this stratospheric aerosol injection would need to be carried out continually for at least a century to achieve the desired cooling effect. Stopping prematurely would lead to an unprecedented rise in global temperatures far outpacing extreme climate change scenarios.

Heads in the clouds

Another solar geoengineering technology, known as marine cloud brightening, seeks to make low-lying clouds more reflective by spraying microscopic seawater droplets into the air. Since 2017, trials have been underway on the Great Barrier Reef.

The project is tiny in scale, and involves pumping seawater onto a boat and spraying it from nozzles towards the sky. The project leader says the mist-generating machine would need to be scaled up by a factor of ten, to about 3,000 nozzles, to brighten nearby clouds by 30%.

After years of trials, the project has not yet produced peer-reviewed empirical evidence that cloud brightening could reduce sea surface temperatures or protect corals from bleaching.

The Great Barrier Reef is the size of Italy. Scaling up attempts at cloud brightening would require up to 1,000 machines on boats, all pumping and spraying vast amounts of seawater for months during summer. Even if it worked, the operation is hardly, as its proponents claim, “environmentally benign”.

The technology’s effects remain unclear. For the Great Barrier Reef, less sunlight and lower temperatures could alter water movement and mixing, harming marine life. Marine life may also be killed by pumps or negatively affected by the additional noise pollution. And on land, marine cloud brightening may lead to altered rainfall patterns and increased salinity, damaging agriculture.

More broadly, 101 governments last year agreed to a statement describing marine-based geoengineering, including cloud brightening, as having “the potential for deleterious effects that are widespread, long-lasting or severe”.

Balls, bubbles and foams

The Arctic Ice Project involves spreading a layer of tiny glass spheres over large regions of sea ice to brighten its surface and halt ice loss.

Trials have been conducted on frozen lakes in North America. Scientists recently showed the spheres actually absorb some sunlight, speeding up sea-ice loss in some conditions.

Another proposed intervention is spraying the ocean with microbubbles or sea foam to make the surface more reflective. This would introduce large concentrations of chemicals to stabilise bubbles or foam at the sea surface, posing significant risk to marine life, ecosystem function and fisheries.

No more distractions

Some scientists investigating solar geoengineering discuss the need for “exit ramps” – the termination of research once a proposed intervention is deemed to be technically infeasible, too risky or socially unacceptable. We believe this point has already been reached.

Since 2022, more than 500 scientists from 61 countries have signed an open letter calling for an international non-use agreement on solar geoengineering. Aside from the types of risks discussed above, the letter said the speculative technologies detract from the urgent need to cut global emissions, and that no global governance system exists to fairly and effectively regulate their deployment.

Calls for outdoor experimentation of the technologies are misguided and detract energy and resources from what we need to do today: phase out fossil fuels and accelerate a just transition worldwide.

Climate change is the greatest challenge facing humanity, and global responses have been woefully inadequate. Humanity must not pursue dangerous distractions that do nothing to tackle the root causes of climate change, come with incalculable risk, and will likely further delay climate action.


James Kerry is an Adjunct Senior Research Fellow, James Cook University, Australia and Senior Marine and Climate Scientist, OceanCare, Switzerland, James Cook University.

Aarti Gupta is a Professor of Global Environmental Governance, Wageningen University.

Terry Hughes is a Distinguished Professor, James Cook University.

A Debate on Collapse: Noam Chomsky, Max Wilbert, and Miguel Fuentes

A Debate on Collapse: Noam Chomsky, Max Wilbert, and Miguel Fuentes

Editor’s note: Marxism and Collapse is a new organization formed “for information and debate on the scientific sources surrounding the existential problems facing humanity in the short term (ecological crisis, energy collapse, overpopulation, resource depletion, pandemics, atomic war) and the need for a new strategic programmatic framework in the face of an inevitable nearby process of civilisational collapse and human extinction.” They reached out to Deep Green Resistance member Max Wilbert recently and invited him to participate in this written debate with Noam Chomsky and Miguel Fuentes. His comments are published here for the first time.

A few notes. First, while it is impossible to work for social change without contending with Marx and his legacy, Deep Green Resistance is not a Marxist organization. Although several of our organizers do consider themselves Marxists, others reject Marxism. Nonetheless, we see great value in dialogue with Marxist organizations and communities, just as we value in dialogue with Conservative or Libertarian organizations. Open dialogue, debate, and discussion is essential, and we are glad to see some strains of Marxism beginning to seriously contend with the unfolding ecological crisis.

Second, this debate includes comments from Guy McPherson, a man who Deep Green Resistance cut ties with after allegations surfaced of sexual misconduct. We would have preferred to remove McPherson’s comments, but left them here at the insistence of Marxism and Collapse. Be wary of this man.

This is part 1 of a 2 part written debate.


Introduction

The following is the first part of the interview-debate “Climate Catastrophe, Collapse, Democracy and Socialism” between the linguist and social scientist Noam Chomsky, one of the most important intellectuals of the last century, the Chilean social researcher and referent of the Marxist-Collapsist theoretical current Miguel Fuentes, and the American scientist Guy McPherson, a specialist in the topics of the ecological crisis and climate change. One of the most remarkable elements of this debate is the presentation of three perspectives which, although complementary in many respects, offer three different theoretical and political-programmatic approaches to the same problem: the imminence of a super-catastrophic climate change horizon and the possibility of a near civilisational collapse. Another noteworthy element of this debate is the series of interpretative challenges to which Chomsky’s positions are exposed and that give this discussion the character of a true “ideological contest” between certain worldviews which, although as said before common in many respects, are presented as ultimately opposed to each other. In a certain sense, this debate takes us back, from the field of reflection on the ecological catastrophe, to the old debates of the 20th century around the dilemma between “reform or revolution”, something that is undoubtedly necessary in the sphere of contemporary discussions of political ecology.

Question 1:

Marxism and Collapse: In a recent discussion between ecosocialist stances and collapsist approaches represented by Michael Lowy (France), Miguel Fuentes (Chile) and Antonio Turiel (Spain), Lowy constantly denied the possibility of a self-induced capitalist collapse and criticized the idea of the impossibility of stopping climate change before it reaches the catastrophic level of 1.5 centigrade degrees of global warming. Do you think that the current historical course is heading to a social global downfall comparable, for example, to previous processes of civilization collapse or maybe to something even worse than those seen in ancient Rome or other ancient civilizations? Is a catastrophic climate change nowadays unavoidable? Is a near process of human extinction as a result of the overlapping of the current climate, energetic, economic, social and political crisis and the suicidal path of capitalist destruction, conceivable? (1) (Marxism and Collapse)

Noam Chomsky:

The situation is ominous, but I think Michael Lowy is correct. There are feasible means to reach the IPPC goals and avert catastrophe, and also moving on to a better world. There are careful studies showing persuasively that these goals can be attained at a cost of 2-3% of global GDP, a substantial sum but well within reach – a tiny fraction of what was spent during World War II, and serious as the stakes were in that global struggle, what we face today is more significant by orders of magnitude. At stake is the question whether the human experiment will survive in any recognizable form.

The most extensive and detailed work I know on how to reach these goals is by economist Robert Pollin. He presents a general review in our joint book Climate Crisis and the Global Green New Deal. His ideas are currently being implemented in a number of places, including some of the most difficult ones, where economies are still reliant on coal. Other eco-economists, using somewhat different models, have reached similar conclusions. Just recently IRENA, —the International Renewable Energy Agency, part of the UN– came out with the same estimate of clean energy investments to reach the IPCC goals.

There is not much time to implement these proposals. The real question is not so much feasibility as will. There is little doubt that it will be a major struggle. Powerful entrenched interests will work relentlessly to preserve short-term profit at the cost of incalculable disaster. Current scientific work conjectures that failure to reach the goal of net zero Carbon emissions by 2050 will set irreversible processes in motion that are likely to lead to a “hothouse earth,” reaching unthinkable temperatures 4-5º Celsius above pre-industrial levels, likely to result in an end to any form of organized human society.

Miguel Fuentes:

Noam Chomsky highlights the possibility of a global warming that exceeds 4-5 degrees Celsius above pre-industrial levels within this century in his previous response, which according to him could mean, literally, the end of all forms of organised human society. Chomsky endorses what many other researchers and scientists around the world are saying. A recent report by the Breakthrough National Centre for Climate Restoration, for example, points to 2050 as the most likely date for the onset of widespread civilisational collapse. The central idea would be that, due to a sharp worsening of the current climate situation, and the possible transformation by the middle of this century of a large part of our planet into uninhabitable, a point of no return would then be reached in which the fracture and collapse of nation states and the world order would be inevitable . At the same time, he states that the needed goals to avert this catastrophe which will lay the foundations for a transition to “clean energy”, and a more just society, would still be perfectly achievable. Specifically, Chomsky says that this would only require an investment of around 2-3% of world GDP, the latter within the framework of a plan of “environmental reforms” described in the so-called “Green New Deal” of which he is one of its main advocates.

Let’s reflect for a moment on the above. On the one hand, Chomsky accepts the possibility of a planetary civilisational collapse in the course of this century. On the other hand, he reduces the solution to this threat to nothing more than the application of a “green tax”. Literally the greatest historical, economic, social, cultural and even geological challenge that the human species and civilisation has faced since its origins reduced, roughly speaking, to a problem of “international financial fundraising” consisting of allocating approximately 3% of world GDP to the promotion of “clean energies”. Let’s think about this again. A danger that, as Chomsky puts it, would be even greater than the Second World War and could turn the Earth into a kind of uninhabitable rock, should be solved either by “international tax collection” or by a plan of limited “eco-reforms” of the capitalist economic model (known as the “Green New Deal”).

But how is it possible that Chomsky, one of the leading intellectuals of the 20th century, is able to make this “interpretive leap” between accepting the possibility of the “end of all organised human society” within this century and reducing the solution to that threat to what would appear to be no more than a (rather timid) cosmetic restructuring of international capitalist finance? Who knows! What is certain, however, is that Chomsky’s response to the climate threat lags far behind not only those advocated by the ecosocialist camp and even traditional Marxism to deal with the latter, based on posing the link between the problem of the root causes of the ecological crisis and the need for a politics that defends the abolition of private ownership of the means of production as a necessary step in confronting it. Moreover, Chomsky’s treatment of the ecological crisis seems to be inferior to that which characterises all those theoretical tendencies which, such as the theory of degrowth or a series of collapsist currents, advocate the imposition of drastic plans of economic degrowth and a substantial decrease in industrial activity and global consumption levels. The latter by promoting a process of “eco-social transition” which would not be reduced to a mere change in the energy matrix and the promotion of renewable energies, but would imply, on the contrary, the transition from one type of civilisation (modern and industrial) to another, better able to adapt to the new planetary scenarios that the ecological crisis, energy decline and global resource scarcity will bring with them.

But reducing the solution of the climate catastrophe to the need for a “green tax” on the capitalist market economy is not the only error in Chomsky’s response. In my view, the main problem of the arguments he uses to defend the possibility of a successful “energy transition” from fossil fuels to so-called “clean energy” would be that they are built on mud. First, because it is false to say that so-called “clean energies” are indeed “clean” if we consider the kind of resources and technological efforts required in the implementation of the energy systems based on them. Solar or wind energy, for example, depend not only on huge amounts of raw materials associated for their construction with high polluting extractive processes (e.g., the large quantities of steel required for the construction of wind turbines is just one illustration of this), but also on the use of extensive volumes of coal, natural gas or even oil. The construction of a single solar panel requires, for instance, enormous quantities of coal. Another striking example can be seen in the dependence of hydrogen plants (specially the “grey” or “blue” types) on vast quantities of natural gas for their operations. All this without it ever being clear that the reduction in the use of fossil fuels that should result from the implementation of these “clean” technologies will be capable of effectively offsetting a possible exponential increase in its “ecological footprint” in the context of a supposedly successful energy transition .

Secondly, it is false to assume that an energy matrix based on renewable energies could satisfy the energy contribution of fossil fuels to the world economy in the short or medium term, at least, if a replication of current (ecologically unviable) patterns of economic growth is sought. Examples of this include the virtual inability of so-called “green hydrogen” power plants to become profitable systems in the long term, as well as the enormous challenges that some power sources such as solar or wind energy (highly unstable) would face in meeting sustained levels of energy demand over time. All this without even considering the significant maintenance costs of renewable energy systems, which are also associated (as said) with the use of highly polluting raw materials and a series of supplies whose manufacture also depend on the use of fossil fuels .

But the argumentative problems in Chomsky’s response are not limited to the above. More importantly is that the danger of the climate crisis and the possibility of a planetary collapse can no longer be confined to a purely financial issue (solvable by a hypothetical allocation of 3% of world GDP) or a strictly technical-engineering challenge (solvable by the advancement of a successful energy transition). This is because the magnitude of this problem has gone beyond the area of competence of economic and technological systems, and has moved to the sphere of the geological and biophysical relations of the planet itself, calling the very techno-scientific (and economic-financial) capacities of contemporary civilisation into question. In other words, the problem represented by the current levels of carbon dioxide in the atmosphere, or those related to the unprecedented advances in marine acidification, Arctic melting, or permafrost decomposition rates, would today constitute challenges whose solution would be largely beyond any of our scientific developments and technological capabilities. Let’s just say that current atmospheric carbon dioxide levels (already close to 420 ppm) have not been seen for millions of years on Earth. On other occasions I have defined this situation as the development of a growing “terminal technological insufficiency” of our civilisation to face the challenges of the present planetary crisis .

In the case of current atmospheric CO2 concentrations, for example, there are not and will not be for a long time (possibly many decades or centuries), any kind of technology capable of achieving a substantial decrease of those concentrations. This at least not before such concentrations continue to skyrocket to levels that could soon guarantee that a large part of our planet will become completely uninhabitable in the short to medium term. In the case of CO2 capture facilities, for instance, they have not yet been able to remove even a small (insignificant) fraction of the more than 40 billion tonnes of carbon dioxide emitted each year by industrial society . Something similar would be the situation of other ecological problems such as the aforementioned increase in marine acidification levels, the rise in ocean levels or even the increasingly unmanageable proliferation of space debris and the consequent danger it represents for the (immediate) maintenance of contemporary telecommunication systems. In other words, again, increasing threatening problems for which humanity has no effective technologies to cope, at least not over the few remaining decades before these problems reach proportions that will soon call into question our very survival as a species.

Unsolvable problems, as unsolvable as those that would confront anyone seeking to “restore” a clay pot or a glass bottle to its original state after it has been shattered into a thousand fragments by smashing it against a concrete wall! To restore a glass of the finest crystal after it has been smashed to pieces? Not even with the investment of ten, a hundred world GDPs would it be possible! This is what we have done with the world, the most beautiful of the planetary crystals of our solar system, blown into a thousand pieces by ecocidal industrialism! To restore? To resolve? Bollocks! We have already destroyed it all! We have already finished it all! And no “financial investment” or “technological solution” can prevent what is coming: death! To die then! To die… and to fight to preserve what can be preserved! To die and to hope for the worst, to conquer socialism however we can, on whatever planet we have, and to take the future out of the hands of the devil himself if necessary! That is the task of socialist revolution in the 21st century! That is the duty of Marxist revolutionaries in the new epoch of darkness that is rising before us! That is the mission of Marxism-Collapsist!

Max Wilbert:

Throughout history, all civilizations undermine their own ecological foundations, face disease, war, political instability, and the breakdown of basic supply chains, and eventually collapse.

Modern technology and scientific knowledge does not make us immune from this pattern. On the contrary, as our global civilization has harnessed more energy, expanded, and grown a larger population than ever before in history, the fall is certain to be correspondingly worse. What goes up must come down. This is a law of nature. The only question is, when?

Professor Chomsky’s argument that collapse of civilization can be averted at a relatively minor cost by diverting 2-3% of global GDP to transition to renewable energy and fund a *Global Green New Deal* does not contend with the physical constraints civilization faces today. The global energy system, which powers the entire economy, is the largest machine in existence and was built over more than a century during a period of abundant fossil fuels and easy-to-access minerals and raw materials. It was powered by the *last remnants of ancient sunlight*, fossil fuels condensed into an extremely dense form of energy that is fungible and easily transportable.

That era is over. Accessible reserves of minerals, oil, and gas are gone, and we are long since into the era of extreme energy extraction (fracking, deepwater drilling, arctic drilling, tar sands, etc.). Simply replacing fossil fuels with solar and wind energy and phasing out all liquid and solid fuel (which still makes up roughly 80% of energy use) in favor of electrification of transportation, heating, etc. is not a simple task in an era of declining energy availability, increasing costs, extreme weather, political and financial instability, and resource scarcity. And these so-called “renewable” technologies still have major environmental impacts (for example, see solar impacts on desert tortoise, wind energy impacts on bat populations, and lithium mining impacts on sage-grouse), even if they do reduce carbon emissions—which is not yet proven outside of models.

In practice, renewable energy technologies seem to be largely serving as a profitable investment for the wealthy, a way to funnel public money into private hands, and a distraction from the scale of the ecological problems we face (of which global warming is far from the worst) and the scale of solutions which are needed. This is, as Miguel Fuentes points out, a rather timid cosmetic restructuring of the dominant political and economic order.

In our book *Bright Green Lies: How the Environmental Movement Lost Its Way and What We Can Do About It*, my co-authors and I call this “solving for the wrong variable.” We write: “Our way of life [industrial modernity] doesn’t need to be saved. The planet needs to be saved from our way of life… we are not saving civilization; we are trying to save the world.” Scientists like Tim Garrett at the University of Utah model civilization as a “heat engine,” a simple thermodynamic model that will consume energy and materials until it can no longer do so, then collapse. Joseph Tainter, the scholar of collapse, writes that “in the evolution of a society, continued investment in complexity as a problem-solving strategy yields a declining marginal return.” This is our reality.

Whether sanity prevails and we succeed in building a new politics and new societies organized around rapidly scaling down the human enterprise to sustainable levels, or we continue down the business-as-usual path we are on, the future looks either grim or far more dire. Global warming will continue to worsen for decades even if, by some miracle, we are able to dismantle the fossil fuel industry and restore the ecology of this planet. The 6th mass extinction event and ecological collapse aren’t a distant future. We are in the depths of these events, and they’ve been getting worse for centuries. The question is not “can we avoid catastrophe?” It’s too late for that. The question is, “how much of the world will be destroyed?” Will elephants survive? Coral reefs? Tigers? The Amazon Rainforest? Will humans? What will we leave behind?

I want to leave behind as much biodiversity and ecological integrity as possible. Human extinction seems unlikely, at least in coming decades, unless runaway global warming accelerates faster than predicted. “Unlikely” is not “impossible,” but there are 8 billion of us, and we are profoundly adaptable. I am far less worried about human extinction than about the extinction of countless other species—100 per day. I am far more worried about the collapse of insect populations or phytoplankton populations (which provide 40% of all oxygen on the planet and are the base of the oceanic food web). The fabric of life itself is fraying, and we are condemning unborn human generations to a hellish future and countless non-humans to the extinction. Extinction will come for humans, at some point. But at this point, I am not concerned for our species, but rather for the lives of my nephews and their children, and the salmon on the brink of extermination, and the last remaining old-growth forests.

Guy McPherson:

There is no escape from the mass extinction event underway. Only human arrogance could suggest otherwise. Our situation is definitely terminal. I cannot imagine that there will be a habitat for Homo sapiens beyond a few years in the future. Soon after we lose our habitat, all individuals of our species will die out. Global warming has already passed two degrees Celsius above the 1750 baseline, as noted by the renowned Professor Andrew Glikson in his October 2020 book “The Event Horizon”. He wrote on page 31 of that book: “During the Anthropocene, greenhouse gas forcing increased by more than 2.0 W/m2, equivalent to more than > 2°C above pre-industrial temperatures, which is an abrupt (climate change) event taking place over a period not much longer than a generation”.

So yes. We have definitely passed the point of no return in the climate crisis. Even the incredibly conservative Intergovernmental Panel on Climate Change (IPCC) has already admitted the irreversibility of climate change in its 24 September 2019 “Special Report on the Ocean and Cryosphere in a Changing Climate”. A quick look around the globe will also reveal unprecedented events such as forest fires, floods and mega-droughts. The ongoing pandemic is just one of many events that are beginning to overwhelm human systems and our ability to respond positively.

All species are going extinct, including more than half a dozen species of the genus Homo that have already disappeared. According to the scientific paper by Quintero and Wiens published in Ecology Letters on 26 June 2013, the projected rate of environmental change is 10.000 times faster than vertebrates can adapt to. Mammals also cannot keep up with these levels of change, as Davis and colleagues’ paper published in the Proceedings of the National Academy of Sciences on 30 October 2018 points out. The fact that our species is a vertebrate mammal suggests that we will join more than 99% of the species that have existed on Earth that have already gone extinct. The only question in doubt is when. In fact, human extinction could have been triggered several years ago when the Earth’s average global temperature exceeded 1.5 degrees Celsius above the 1750 baseline. According to a comprehensive overview of this situation published by the European Strategy and Policy Analysis System in April 2019, a “1.5 degree increase is the maximum the planet can tolerate; (…) in a worst-case scenario, [such a temperature increase above the 1750 baseline will result in] the extinction of humanity altogether”.

All species need habitat to survive. As Hall and colleagues reported in the Spring 1997 issue of the Wildlife Society Bulletin: “We therefore define habitat ‘as the resources and conditions present in an area that produce occupancy, including survival and reproduction, of a given organism. Habitat is organism-specific; it relates the presence of a species, population or individual (…) to the physical and biological characteristics of an area. Habitat implies more than vegetation or the structure of that vegetation; it is the sum of the specific resources needed by organisms. Whenever an organism is provided with resources that allow it to survive, that is its habitat’”. Even tardigrades are not immune to extinction. Rather, they are sensitive to high temperatures, as reported in the 9 January 2020 issue of Scientific Reports. Ricardo Cardoso Neves and collaborators point out there that all life on Earth is threatened with extinction with an increase of 5-6 degrees Celsius in the global average temperature. As Strona and Corey state in another article in Scientific Reports (November 13, 2018) raising the issue of co-extinctions as a determinant of the loss of all life on Earth: “In a simplified view, the idea of co-extinction boils down to the obvious conclusion that a consumer cannot survive without its resources”.

From the incredibly conservative Wikipedia entry entitled “Climate change” comes this supporting information: “Climate change includes both human-induced global warming and its large-scale impacts on weather patterns. There have been previous periods of climate change, but the current changes are more rapid than any known event in Earth’s history.” The Wikipedia entry further cites the 8 August 2019 report “Climate Change and Soils”, published by the Intergovernmental Panel on Climate Change (IPCC). The IPCC is among the most conservative scientific bodies in history. Yet it concluded in 2019 that the Earth is in the midst of the most rapid environmental change seen in planetary history, citing scientific literature that concludes: “These rates of human-driven global change far exceed the rates of change driven by geophysical or biospheric forces that have altered the trajectory of the Earth System in the past (Summerhayes 2015; Foster et al. 2017); nor do even abrupt geophysical events approach current rates of human-driven change”.

The Wikipedia entry also points out the consequences of the kind of abrupt climate change currently underway, including desert expansion, heat waves and wildfires becoming increasingly common, melting permafrost, glacier retreat, loss of sea ice, increased intensity of storms and other extreme environmental events, along with widespread species extinctions. Another relevant issue is the fact that the World Health Organisation has already defined climate change as the greatest threat to global health in the 21st century. The Wikipedia entry continues: “Under the 2015 Paris Agreement, nations collectively agreed to keep warming ‘well below 2.0 degrees C (3.6 degrees F) through mitigation efforts’”. But Professor Andrew Glikson already pointed out as we said in his aforementioned book The Event Horizon that the 2 degrees C mark is already behind us. Furthermore, as we already indicated, the IPCC also admitted the irreversibility of climate change in its “Special Report on the Ocean and Cryosphere in a Changing Climate”. Therefore, 2019 was an exceptional year for the IPCC, as it concluded that climate change is abrupt and irreversible.

How conservative is the IPCC? Even the conservative and renowned journal BioScience includes an article in its March 2019 issue entitled “Statistical language supports conservatism in climate change assessments”. The paper by Herrando-Perez and colleagues includes this information: “We find that the tone of the IPCC’s probabilistic language is remarkably conservative (…) emanating from the IPCC’s own recommendations, the complexity of climate research and exposure to politically motivated debates. Harnessing the communication of uncertainty with an overwhelming scientific consensus on anthropogenic climate change should be one element of a broader reform, whereby the creation of an IPCC outreach working group could improve the transmission of climate science to the panel’s audiences”. Contrary to the conclusion of Herrando-Perez and colleagues, I cannot imagine that the IPCC is really interested in conveying accurate climate science to its audiences. After all, as Professor Michael Oppenheimer noted in 2007, the US government during the Reagan administration “saw the creation of the IPCC as a way to prevent the activism stimulated by my colleagues and me from controlling the political agenda”.

Question 2:

Marxism and Collapse: Have the human species become a plague for the planet? If so, how can we still conciliate the survival of life on Earth with the promotion of traditional modern values associated with the defence of human and social rights (which require the use of vast amounts of planetary resources) in a context of a potential increase of world’s population that could reach over twelve billion people this century? The latter in a context in which (according to several studies) the maximum number of humans that Earth could have sustained without a catastrophic alteration of ecosystems should have never exceeded the billion. Can the modern concept of liberal (or even socialist) democracy and its supposedly related principles of individual, identity, gender, or cultural freedom survive our apparent terminal geological situation, or it will be necessary to find new models of social organization, for example, in those present in several indigenous or native societies? Can the rights of survival of living species on Earth, human rights, and the concept of modern individual freedom be harmoniously conciliated in the context of an impending global ecosocial disaster?

Noam Chomsky:

Let’s begin with population growth. There is a humane and feasible method to constrain that: education of women. That has a major effect on fertility in both rich regions and poor, and should be expedited anyway. The effects are quite substantial leading to sharp population decline by now in parts of the developed world. The point generalizes. Measures to fend off “global ecosocial disaster” can and should proceed in parallel with social and institutional change to promote values of justice, freedom, mutual aid, collective responsibility, democratic control of institutions, concern for other species, harmony with nature –values that are commonly upheld by indigenous societies and that have deep roots in popular struggles in what are called the “developed societies” –where, unfortunately, material and moral development are all too often uncorrelated.

Miguel Fuentes:

Chomsky’s allusions to the promotion of women’s education and the social values of justice, freedom, mutual aid, and harmony with nature, as “moral values” disconnected from a broader critique of the industrial system, capitalism, and the class society within which threats such as global warming have been generated and aggravated, become mere phrases of good intentions. On the contrary, the realization of these principles must be thought within a context of a large-scale world social transformation. The latter if those principles are to be effective in combatting the challenges facing humanity today and the kind of civilisational crisis that is beginning to unfold as a product of the multiple eco-social (ecological, energy and resource) crises that are advancing globally. In other words, a process of historical transformation that can envisage the abolition of the current ecocidal industrial economic system, and its replacement by one in which production, exchange and distribution can be planned in accordance with social needs.

But even a traditional socialist approach to these problems, such as the one above, also falls short of accounting for the kind of planetary threats we face. Let’s put it this way, the discussion around the ecological crisis and the rest of the existential dangers hanging over the fate of our civilisation today really only begins, not ends, by giving it a proper Marxist contextualisation. One of the underlying reasons for this is that the traditional socialist project itself, in all its variants (including its more recent ecosocialist versions), would also already be completely insufficient to respond to the dangers we are facing as a species. That is, the kind of dangers and interpretative problems that none of the Marxists theoreticians of social revolution over the last centuries had ever imagined possible, from Marx and Engels to some of the present-day exponents of ecosocialism such as John Bellamy Foster or Michael Lowy .

One of these new types of problems that revolutionary theories are facing today is that of the current uncontrolled demographic growth rates of humanity. A problem that would already confer on us, amongst other things, the condition of one of the worst biological (or, in our case, “biosocial”) plagues existing to this day. This if we consider the absolutely devastating role that our species has been exerting on the biosphere in the last centuries. A plague that would be even comparable in its destructive power to that represented by the cyanobacteria that triggered the first mass extinction event on Earth some 2.4 billion years ago, although in our case at an even more accelerated and “efficient” pace than the latter. Is this statement too brutal? Maybe, from a purely humanist point of view, alien to the kind of problems we face today, but not from an eminently scientific perspective. Or can there be any doubt about our condition as a “planetary plague” for any ecologist studying the current patterns of behaviour, resource consumption and habitat destruction associated with our species? Too brutal a statement? Tell it to the more than 10.000 natural species that become extinct every year as a result of the role of a single species on the planet: ours! Tell it to the billions of animals killed in the great fires of Australia or the Amazon a few years ago! Tell it to the polar bears, koalas, pikas, tigers, lions, elephants, who succumb every year as a product of what we have done to the Earth! Very well, we are then a “plague”, although this term would only serve to classify us as a “biological species”, being therefore too “limited” a definition and lacking any social and historical perspective. Right?

Not really. The fact that we possess social and cultural systems that differentiate us from other complex mammals does not mean that our current status as a “plague of the world” should be confined to the biological realm alone. On the contrary, this just means that this status could also have a certain correlation in the social and cultural dimension; that is, in the sphere of the social and cultural systems particular to modern society. To put it in another way, even though our current condition of “plague of the world” has been acquired by our species within the framework of a specific type of society, mode of production and framework of particular historical relations, characteristic of industrial modernity, this does not mean that this condition should be understood as a merely historical product. That is, excluding its biological and ecological dimension. In fact, beyond the differentiated position and role of the various social sectors that make up the productive structure and the socio-economic systems of the industrial society (for example, the exploiting and exploited social classes), it is indeed humanity as a whole: rich and poor, entrepreneurs and workers, men and women, who share (all of us) the same responsibility as a species (although admittedly in a differentiated way) for the current planetary disaster. An example of the above. Mostly everything produced today by the big multinationals, down to the last grain of rice or the last piece of plastic, is consumed by someone, whether in Paris, London, Chisinau or La Paz. And we should also remember that even biological plagues (such as locusts) may have different consumption patterns at the level of their populations, with certain sectors being able to consume more and others consuming less. However, just because one sector of a given biological plague consumes less (or even much less), this sector should not necessarily be considered as not belonging to that plague in question.

Another similar example: it is often claimed in Marxist circles (sometimes the numbers vary according to each study) that 20% of humanity consumes 80% of the planetary resources. This means that approximately 1.600.000.000.000 people (assuming a total population of 8 billion) would be the consumers of that 80% of planetary resources; that is, a number roughly equivalent to three times the current European population. In other words, what this sentence really tells us is that a much larger segment of the world’s population than the capitalist elites (or their political servants) would also bear a direct, even grotesque, responsibility for the unsustainable consumption patterns that have been aggravating the current planetary crisis. Or, to put it in more “Marxist” terms, that a large percentage (or even the totality) of the working classes and popular sectors in Europe, the United States, and a significant part of those in Latin America and other regions of the so-called “developing countries”, would also be “directly complicit”, at least in regards of the reproduction of the current ecocidal modern urban lifestyle, in the destruction of our planet.

But let us extend the discussion to the remaining 80% of humanity; that is, to the approximately 6.400.000.000.000 people who consume 20% of the planetary resources used in a year. To begin with, let us say that 20% of global resources is not a negligible percentage, representing in fact a fifth of them and whose production would be associated with substantial and sustained levels of environmental destruction. The latter in the context of an ever-growing world population that possibly should never have exceeded one billion inhabitants, so that we would have been in a position today to stop or slow down the disastrous impact we are having on ecosystems. Let us not forget that the number of people included in this 80% of the world’s population is more than four times higher than the entire human population at the beginning of the 20th century, which means that the number of basic resources necessary for the survival of this sector is an inevitable pressure on the earth’s natural systems, even if consumption levels are kept to a minimum.

In short, there is therefore no doubt that humanity has indeed become one of the worst planetary plagues in the history of terrestrial life, constituting this a (fundamental) problem in itself for contemporary revolutionary thought and, more generally, for the human and social sciences as a whole. In other words, a problem that today would not be solved by a mere change in the mode of production, the class structure, or the socio-political system, but would be associated with the very “genetics” of the development of industrial society. That is to say, a society based on a particularly destructive (voracious) form of human-nature relationships, which would be at the same time the “structural basis” of all possible and conceivable models of it (capitalists, socialists or any other type). Whether in the framework of a neo-liberal market economy or a socialist and/or collectivist planned economy, it is the industrial system and modern mass society in all its variants, whether capitalist or socialist, its mega-cities, its productive levels, its consumption patterns and lifestyles, its “anthropocentric spirit”, structurally associated with certain demographic patterns in which the Earth is conceived as a mere space for human consumption and reproduction… that is the main problem.

Is it possible to reconcile current levels of overpopulation with the survival requirements of our species? No. We have become a planetary plague and will remain a planetary plague until such time as, by hook or by crook (almost certainly by crook) our numbers are substantially reduced and remain at the minimum possible levels, for at least a few centuries or millennia. Is it possible to solve the problem of overpopulation and at the same time defend the legitimacy of traditional modern values associated with the promotion of human and social rights, at least as these values have been understood in recent centuries? No. Modernity has failed. Modernity is dead. We are going to have to rethink every single one of our values, including the most basic ones, all of them. We are going to have to rethink who we are, where we are going and where we come from. The existence of almost 8 billion people on our planet today, and moreover the likely increase of this number to one that reaches 10 or even 12 billion is not only incompatible with the realisation of the very ideals and values of modern democracy in all its variants (capitalists or socialists), but also with the very survival of our species as a whole and, possibly, of all complex life on Earth. This simply because there will be nowhere near enough resources to ensure the realization of these values (or even our own subsistence) in such a demographic context (there simply won’t be enough food and water). Our situation is terminal. Modernity is dead. Democracy is dead. Socialism is dead. And if we want these concepts -democracy or socialism- to really have any value in the face of the approaching catastrophe, then we will have to rethink them a little more humbly than we have done so far.

Modern civilisation has borne some of the best fruits of humanity’s social development, but also some of the worst. We are in some ways like the younger brother of a large family whose early successes made him conceited, stupid and who, thinking of himself as “master of the world”, began to lose everything. We are that young man. We should therefore shut up, put our ideologies (capitalists and socialists) in our pockets, and start learning a little more from our more modest, slower and more balanced “big brothers”; for example, each of the traditional or indigenous societies which have been able to ensure their subsistence for centuries and in some cases even millennia. The latter while industrial society would not even have completed three centuries before endangering its own existence and that of all other cultures on the planet. In a few words, start learning from all those traditional societies that have subsisted in the context of the development of social systems that are often much more respectful of ecological and ecosystemic balances. Those “ecosocial balances” which are, in the end, in the long view of the evolution of species, the real basis for the development of any society… because without species (be they animal or plant), any human culture is impossible. Scientific and technological progress? Excellent idea! But perhaps we could take the long route, think things through a bit more, and achieve the same as we have achieved today in two centuries, but perhaps taking a bit longer, say ten, twenty or even a hundred centuries? Who’s in a hurry? Let us learn from the tortoise which, perhaps because it is slow, has survived on Earth for more than 220 million years, until we (who as Homo sapiens are no more than 250.000 years old) came along and endangered it.

Max Wilbert:

Human population is a hockey-stick graph that corresponds almost exactly with rising energy use. Most of the nitrogen in our diet comes from fossil fuel-based fertilizers. Norman Borlaug, the plant breeder who won the Nobel Peace Prize for his work on the Green Revolution, said in his acceptance speech that “we are dealing with two opposing forces, the scientific power of food production and the biologic power of human reproduction… There can be no permanent progress in the battle against hunger until the agencies that fight for increased food production and those that fight for population control unite in a common effort.”

Ideally, this situation could be dealt with humanely by education and making family planning and women’s health services available. The best example of this actually comes from Iran, where under a religious theocracy in the wake of the Iran-Iraq war, birth rates were reduced from around 7 children per woman to less than replacement in little more than a decade (the policy was since reversed, and Iran’s land and water is paying the price). Technically, it’s quite easy to solve overpopulation humanely; reduce birth rates to less than replacement levels, then wait. Politically, it’s much harder. As we’ve seen with the recent fall of abortion rights in the US, the political battle for control of women’s reproduction is alive and well, and basic ecology is anathema to many political leaders and populations.

Unless we take action to reduce our population willingly, it will happen unwillingly as the planet’s ecology fails to be able to support us. That will be harsh. Any species that exceeds the carrying capacity of the environment it lives in will experience a population crash, usually due to starvation, disease, and predation. That’s our choice. Either we make the right decisions, or we pay the price.

The difference between our situation today and the Indus Valley civilization or the Roman Empire is that today civilization is globalized. The collapse of global industrial civilization, as I wrote above, is coming. I don’t believe it can be stopped at this point; in fact, I believe it is already in progress. But collapse is also not simply an overnight chaotic breakdown of all social order. We can define collapse as a rapid simplification of a complex society characterized by breakdown of political and social institutions, a return to localized, low energy ways of life, and usually a significant reduction in population (which is a nice way of saying, a lot of people die).

Collapse should be looked at as having good and bad elements. Good elements, from my perspective, include reducing consumption and energy use, localizing our lives, and having certain destructive institutions (for example, the fossil fuel industry) fade away. Bad elements might include breakdown of basic safety and rising violence, mass starvation, disease, and, for example, the destruction of local forests for firewood if electricity is no longer available for heating. Some aspects of collapse have elements of both. For example, the collapse of industrial agriculture would be incredibly beneficial for the planet but would lead to mass human die offs.

If collapse is coming regardless of what we want, it’s our moral and ecological responsibility to make the best of the situation by assisting and accelerating the positive aspects of collapse (for example, by working to reduce consumption and dismantle oil infrastructure) and help prevent or mitigate the negative aspects (for example, by working to reduce population growth and build localized sustainable food systems).

As I write this, I am looking into a meadow between 80-year-old oak trees. A deer and her fawn are walking through the grass. Birds are singing in the trees. A passenger jet roars overhead, and the hum of traffic floats over the hills. There is a fundamental contradiction between industrial civilization and ecology, and the organic tensions created by this contradiction are rising. These are dire and revolutionary times, and it is our responsibility to navigate them.

Guy McPherson:

As ecologists have been pointing out for decades, environmental impacts are the result of human population size and human consumption levels. The Earth can support many more hunter-gatherers than capitalists seeking more material possessions. Unfortunately, we are stuck with the latter rather than the former. Ecologists and environmentalists have been proposing changes in human behaviour since at least the early 20th century. These recommendations have fallen on deaf ears. However, even if it is possible to achieve substantial changes in human behaviour, and if they result in an effective slowing down or stopping of industrial activity, it is questionable whether this is a useful means of ensuring our continued survival. One reason for this lies in the knowledge of what the effect of “aerosol masking” could mean for the climate crisis.

The “climate masking” effect of aerosols has been discussed in the scientific literature since at least 1929, and consists of the following: at the same time as industrial activity produces greenhouse gases that trap part of the heat resulting from sunlight reaching the Earth, it also produces small particles that prevent this sunlight from even touching the surface of the planet. These particles, called “aerosols”, thus act as a kind of umbrella that prevents some of the sunlight from reaching the earth’s surface (hence this phenomenon has also been referred to as “global dimming”) . In other words, these particles (aerosols) prevent part of the sun’s rays from penetrating the atmosphere and thus inhibit further global warming. This means, then, that the current levels of global warming would in fact be much lower than those that should be associated with the volumes of greenhouse gases present in the atmosphere today (hence the designation of this phenomenon as “climate masking”). To put it in a simpler way, the global warming situation today would actually be far more serious than is indicated not only by the very high current global temperatures, but also by the (already catastrophic) projections of rising global temperatures over the coming decades. This is especially important if we consider the (overly optimistic) possibility of a future reduction in the amount of aerosols in the atmosphere as a result of a potential decrease in greenhouse gas emissions over the next few years, which should paradoxically lead, therefore, to a dramatic increase in global temperatures.

Global temperatures should then not only be much higher than they are today, but the expected rise in global temperatures will necessarily be more intense than most climate models suggest. According to the father of climate science, James Hansen, it takes about five days for aerosols to fall from the atmosphere to the surface. More than two dozen peer-reviewed papers have been published on this subject and the latest of these indicates that the Earth would warm by an additional 55% if the “masking” effect of aerosols were lost, which should happen, as we said, as a result of a marked decrease or modification of industrial activity leading to a considerable reduction in greenhouse gas emissions. This study suggests that this could potentially lead to an additional (sudden) increase in the earth’s surface temperature by about 133% at the continental level. This article was published in the prestigious journal Nature Communications on 15 June 2021. In conclusion, the loss or substantial decrease of aerosols in the atmosphere could therefore lead to a potential increase of more than 3 degrees Celsius of global warming above the 1750 baseline very quickly. I find it very difficult to imagine many natural species (including our own) being able to withstand this rapid pace of environmental change.

In reality, a mass extinction event has been underway since at least 1992. This was reported by Harvard professor Edward O. Wilson, the so-called “father of biodiversity”, in his 1992 and 2002 books The Diversity of Life and The Future of Life, respectively. The United Nations Environment Programme also reported in August 2010 that every day we are leading to the extinction of 150 to 200 species. This would thus be at least the eighth mass extinction event on Earth. The scientific literature finally acknowledged the ongoing mass extinction event on 2 March 2011 in Nature. Further research along these lines was published on 19 June 2015 in Science Advances by conservation biologist Gerardo Ceballos and colleagues entitled “Accelerated human-induced losses of modern species: entering the sixth mass extinction”. Coinciding with the publication of this article, lead author Ceballos stated that “life would take many millions of years to recover and that our species would probably soon disappear”. This conclusion is supported by subsequent work indicating that terrestrial life did not recover from previous mass extinction events for millions of years. It is true, however, that indigenous perspectives can help us understand ongoing events. However, I am convinced that rationalism is key to a positive response to these events.


Noam Chomsky is an American linguist, philosopher, cognitive scientist, historian, social critic, and political activist. He adheres to the ideas of libertarian socialism and anarcho-syndicalism. He advocates a New Green Deal policy as one of the ways of dealing with the ecological crisis.

Miguel Fuentes is a Chilean social researcher in the fields of history, archaeology, and social sciences. International coordinator of the platform Marxism and Collapse and exponent of the new Marxist-Collapsist ideology. He proposes the need for a strategic-programmatic updating of revolutionary Marxism in the face of the new challenges of the Anthropocene and the VI mass extinction.

Max Wilbert is an organizer, writer, and wilderness guide. He has been part of grassroots political work for 20 years. He is the co-author of Bright Green Lies: How The Environmental Movement Lost Its Way and What We Can Do About It, which was released in 2021. He is the co-founder of Protect Thacker Pass and part of Deep Green Resistance.

Guy McPherson is an American scientist, professor emeritus of natural resources, ecology, and evolutionary biology. He adheres to anarchism and argues the inevitability of human extinction and the need to address it from a perspective that emphasises acceptance, the pursuit of love and the value of excellence.

The final version of this document has been edited by Dutch archaeologist Sven Ransijn.

Notes

The debate between Michael Lowy, Miguel Fuentes, and Antonio Turiel (which also included critical comments by Spanish Marxist ecologist Jaime Vindel, Argentinean left-wing leader Jorge Altamira and Chilean journalist Paul Walder) can be reviewed in full in the debate section of the Marxism and Collapse website at the following link: www.marxismoycolapso.com/debates.

Farming for a Small Planet

     by  / Local Futures

People yearn for alternatives to industrial agriculture, but they are worried. They see large-scale operations relying on corporate-supplied chemical inputs as the only high-productivity farming model. Another approach might be kinder to the environment and less risky for consumers, but, they assume, it would not be up to the task of providing all the food needed by our still-growing global population.

Contrary to such assumptions, there is ample evidence that an alternative approach—organic agriculture, or more broadly “agroecology”—is actually the only way to ensure that all people have access to sufficient, healthful food. Inefficiency and ecological destruction are built into the industrial model. But, beyond that, our ability to meet the world’s needs is only partially determined by what quantities are produced in fields, pastures, and waterways. Wider societal rules and norms ultimately shape whether any given quantity of food produced is actually used to meet humanity’s needs. In many ways, how we grow food determines who can eat and who cannot—no matter how much we produce. Solving our multiple food crises thus requires a systems approach in which citizens around the world remake our understanding and practice of democracy.

Today, the world produces—mostly from low-input, smallholder farms—more than enough food: 2,900 calories per person per day. Per capita food availability has continued to expand despite ongoing population growth. This ample supply of food, moreover, comprises only what is left over after about half of all grain is either fed to livestock or used for industrial purposes, such as agrofuels.1

Despite this abundance, 800 million people worldwide suffer from long-term caloric deficiencies. One in four children under five is deemed stunted—a condition, often bringing lifelong health challenges, that results from poor nutrition and an inability to absorb nutrients. Two billion people are deficient in at least one nutrient essential for health, with iron deficiency alone implicated in one in five maternal deaths.2

The total supply of food alone actually says little about whether the world’s people are able to meet their nutritional needs. We need to ask why the industrial model leaves so many behind, and then determine what questions we should be asking to lead us toward solutions to the global food crisis.

Vast, Hidden Inefficiencies

The industrial model of agriculture—defined here by its capital intensity and dependence on purchased inputs of seeds, fertilizer, and pesticides—creates multiple unappreciated sources of inefficiency. Economic forces are a major contributor here: the industrial model operates within what are commonly called “free market economies,” in which enterprise is driven by one central goal, namely, securing the highest immediate return to existing wealth. This leads inevitably to a greater concentration of wealth and, in turn, to greater concentration of the capacity to control market demand within the food system.

Moreover, economically and geographically concentrated production, requiring lengthy supply chains and involving the corporate culling of cosmetically blemished foods, leads to massive outright waste: more than 40 percent of food grown for human consumption in the United States never makes it into the mouths of its population.3

The underlying reason industrial agriculture cannot meet humanity’s food needs is that its system logic is one of disassociated parts, not interacting elements. It is thus unable to register its own self-destructive impacts on nature’s regenerative processes. Industrial agriculture, therefore, is a dead end.

Consider the current use of water in agriculture. About 40 percent of the world’s food depends on irrigation, which draws largely from stores of underground water, called aquifers, which make up 30 percent of the world’s freshwater. Unfortunately, groundwater is being rapidly depleted worldwide. In the United States, the Ogallala Aquifer—one of the world’s largest underground bodies of water—spans eight states in the High Plains and supplies almost one third of the groundwater used for irrigation in the entire country. Scientists warn that within the next thirty years, over one-third of the southern High Plains region will be unable to support irrigation. If today’s trends continue, about 70 percent of the Ogallala groundwater in the state of Kansas could be depleted by the year 2060.4

Industrial agriculture also depends on massive phosphorus fertilizer application—another dead end on the horizon. Almost 75 percent of the world’s reserve of phosphate rock, mined to supply industrial agriculture, is in an area of northern Africa centered in Morocco and Western Sahara. Since the mid-twentieth century, humanity has extracted this “fossil” resource, processed it using climate-harming fossil fuels, spread four times more of it on the soil than occurs naturally, and then failed to recycle the excess. Much of this phosphate escapes from farm fields, ending up in ocean sediment where it remains unavailable to humans. Within this century, the industrial trajectory will lead to “peak phosphorus”—the point at which extraction costs are so high, and prices out of reach for so many farmers, that global phosphorus production begins to decline.5

Beyond depletion of specific nutrients, the loss of soil itself is another looming crisis for agriculture. Worldwide, soil is eroding at a rate ten to forty times faster than it is being formed. To put this in visual terms, each year, enough soil is washed and blown from fields globally to fill roughly four pickup trucks for every human being on earth.6

The industrial model of farming is not a viable path to meeting humanity’s food needs for yet another reason: it contributes nearly 20 percent of all anthropogenic greenhouse gas emissions, even more than the transportation sector. The most significant emissions from agriculture are carbon dioxide, methane, and nitrous oxide. Carbon dioxide is released in deforestation and subsequent burning, mostly in order to grow feed, as well as from decaying plants. Methane is released by ruminant livestock, mainly via their flatulence and belching, as well as by manure and in rice paddy cultivation. Nitrous oxide is released largely by manure and manufactured fertilizers. Although carbon dioxide receives most of the attention, methane and nitrous oxide are also serious. Over a hundred-year period, methane is, molecule for molecule, 34 times more potent as a heat-trapping gas, and nitrous oxide about 300 times, than carbon dioxide.7

Our food system also increasingly involves transportation, processing, packaging, refrigeration, storage, wholesale and retail operations, and waste management—all of which emit greenhouses gases. Accounting for these impacts, the total food system’s contribution to global greenhouse gas emissions, from land to landfill, could be as high as 29 percent. Most startlingly, emissions from food and agriculture are growing so fast that, if they continue to increase at the current rate, they alone could use up the safe budget for all greenhouse gas emissions by 2050.8

These dire drawbacks are mere symptoms. They flow from the internal logic of the model itself. The reason that industrial agriculture cannot meet the world’s needs is that the structural forces driving it are misaligned with nature, including human nature.

Social history offers clear evidence that concentrated power tends to elicit the worst in human behavior. Whether for bullies in the playground or autocrats in government, concentrated power is associated with callousness and even brutality not in a few of us, but in most of us.9 The system logic of industrial agriculture, which concentrates social power, is thus itself a huge risk for human well-being. At every stage, the big become bigger, and farmers become ever-more dependent on ever-fewer suppliers, losing power and the ability to direct their own lives.

The seed market, for example, has moved from a competitive arena of small, family-owned firms to an oligopoly in which just three companies—Monsanto, DuPont, and Syngenta—control over half of the global proprietary seed market. Worldwide, from 1996 to 2008, a handful of corporations absorbed more than two hundred smaller independent companies, driving the price of seeds and other inputs higher to the point where their costs for poor farmers in southern India now make up almost half of production costs.10 And the cost in real terms per acre for users of bio-engineered crops dominated by one corporation, Monsanto, tripled between 1996 and 2013.

Not only does the industrial model direct resources into inefficient and destructive uses, but it also feeds the very root of hunger itself: the concentration of social power. This results in the sad irony that small-scale farmers—those with fewer than five acres—control 84 percent of the world’s farms and produce most of the food by value, yet control just 12 percent of the farmland and make up the majority of the world’s hungry.11

The industrial model also fails to address the relationship between food production and human nutrition. Driven to seek the highest possible immediate financial returns, farmers and agricultural companies are increasingly moving toward monocultures of low-nutrition crops such as corn—the dominant US crop—that are often processed into empty-calorie “food products.” As a result, from 1990 to 2010, growth in unhealthy eating patterns outpaced dietary improvements in most parts of the world, including the poorer regions. Most of the key causes of non-communicable diseases are now diet-related, and by 2020, such diseases are predicted to account for nearly 75 percent of all deaths worldwide.12

A Better Alternative

What model of farming can end nutritional deprivation while restoring and conserving food-growing resources for our progeny? The answer lies in the emergent model of agroecology, often called “organic” or ecological agriculture. Hearing these terms, many people imagine simply a set of farming practices that forgo purchased inputs, relying instead on beneficial biological interactions among plants, microbes, and other organisms. However, agroecology is much more than that. The term as it is used here suggests a model of farming based on the assumption that within any dimension of life, the organization of relationships within the whole system determines the outcomes. The model reflects a shift from a disassociated to a relational way of thinking arising across many fields within both the physical and social sciences. This approach to farming is coming to life in the ever-growing numbers of farmers and agricultural scientists worldwide who reject the narrow productivist view embodied in the industrial model.

Recent studies have dispelled the fear that an ecological alternative to the industrial model would fail to produce the volume of food for which the industrial model is prized. In 2006, a seminal study in the Global South compared yields in 198 projects in 55 countries and found that ecologically attuned farming increased crop yields by an average of almost 80 percent. A 2007 University of Michigan global study concluded that organic farming could support the current human population, and expected increases without expanding farmed land. Then, in 2009, came a striking endorsement of ecological farming by fifty-nine governments and agencies, including the World Bank, in a report painstakingly prepared over four years by four hundred scientists urging support for “biological substitutes for industrial chemicals or fossil fuels.”13 Such findings should ease concerns that ecologically aligned farming cannot produce sufficient food, especially given its potential productivity in the Global South, where such farming practices are most common.

Ecological agriculture, unlike the industrial model, does not inherently concentrate power. Instead, as an evolving practice of growing food within communities, it disperses and creates power, and can enhance the dignity, knowledge, and the capacities of all involved. Agroecology can thereby address the powerlessness that lies at the root of hunger.

Applying such a systems approach to farming unites ecological science with time-tested traditional wisdom rooted in farmers’ ongoing experiences. Agroecology also includes a social and politically engaged movement of farmers, growing from and rooted in distinct cultures worldwide. As such, it cannot be reduced to a specific formula, but rather represents a range of integrated practices, adapted and developed in response to each farm’s specific ecological niche. It weaves together traditional knowledge and ongoing scientific breakthroughs based on the integrative science of ecology. By progressively eliminating all or most chemical fertilizers and pesticides, agroecological farmers free themselves—and, therefore, all of us—from reliance on climate-disrupting, finite fossil fuels, as well as from other purchased inputs that pose environmental and health hazards.

In another positive social ripple, agroecology is especially beneficial to women farmers. In many areas, particularly in Africa, nearly half or more of farmers are women, but too often they lack access to credit.14 Agroecology—which eliminates the need for credit to buy synthetic inputs—can make a significant difference for them.

Agroecological practices also enhance local economies, as profits on farmers’ purchases no longer seep away to corporate centers elsewhere. After switching to practices that do not rely on purchased chemical inputs, farmers in the Global South commonly make natural pesticides using local ingredients—mixtures of neem tree extract, chili, and garlic in southern India, for example. Local farmers purchase women’s homemade alternatives and keep the money circulating within their community, benefiting all.15

Besides these quantifiable gains, farmers’ confidence and dignity are also enhanced through agroecology. Its practices rely on farmers’ judgments based on their expanding knowledge of their land and its potential. Success depends on farmers’ solving their own problems, not on following instructions from commercial fertilizer, pesticide, and seed companies. Developing better farming methods via continual learning, farmers also discover the value of collaborative working relationships. Freed from dependency on purchased inputs, they are more apt to turn to neighbors—sharing seed varieties and experiences of what works and what does not for practices like composting or natural pest control. These relationships encourage further experimentation for ongoing improvement. Sometimes, they foster collaboration beyond the fields as well—such as in launching marketing and processing cooperatives that keep more of the financial returns in the hands of farmers.

Going beyond such localized collaboration, agroecological farmers are also building a global movement. La Via Campesina, whose member organizations represent 200 million farmers, fights for “food sovereignty,” which its participants define as the “right of peoples to healthy and culturally appropriate food produced through ecologically sound and sustainable methods.” This approach puts those who produce, distribute, and consume food—rather than markets and corporations—at the heart of food systems and policies, and defends the interests and inclusion of the next generation.

Once citizens come to appreciate that the industrial agriculture model is a dead end, the challenge becomes strengthening democratic accountability in order to shift public resources away from it. Today, those subsidies are huge: by one estimate, almost half a trillion tax dollars in OECD countries, plus Brazil, China, Indonesia, Kazakhstan, Russia, South Africa, and Ukraine.16 Imagine the transformative impact if a significant share of those subsidies began helping farmers’ transition to agroecological farming.

Any accurate appraisal of the viability of a more ecologically attuned agriculture must let go of the idea that the food system is already so globalized and corporate-dominated that it is too late to scale up a relational, power-dispersing model of farming. As noted earlier, more than three-quarters of all food grown does not cross borders. Instead, in the Global South, the number of small farms is growing, and small farmers produce 80 percent of what is consumed in Asia and Sub-Saharan Africa.17

The Right Path

When we address the question of how to feed the world, we need to think relationally—linking current modes of production with our future capacities to produce, and linking farm output with the ability of all people to meet their need to have nutritious food and to live in dignity. Agroecology, understood as a set of farming practices aligned with nature and embedded in more balanced power relationships, from the village level upward, is thus superior to the industrial model. This emergent relational model offers the promise of an ample supply of nutritious food needed now and in the future, and more equitable access to it.

Reframing concerns about inadequate supply is only the first step toward necessary change. The essential questions about whether humanity can feed itself well are social—or, more precisely, political. Can we remake our understanding and practice of democracy so that citizens realize and assume their capacity for self-governance, beginning with the removal of the influence of concentrated wealth on our political systems?

Democratic governance—accountable to citizens, not to private wealth—makes possible the necessary public debate and rule-making to re-embed market mechanisms within democratic values and sound science. Only with this foundation can societies explore how best to protect food-producing resources—soil, nutrients, water—that the industrial model is now destroying. Only then can societies decide how nutritious food, distributed largely as a market commodity, can also be protected as a basic human right.

 

This post is adapted from an essay originally written for the Great Transition Initiative.

Featured image:  TompkinsConservation.org

Endnotes

1. Food and Agriculture Division of the United Nations, Statistics Division, “2013 Food Balance Sheets for 42 Selected Countries (and Updated Regional Aggregates),” accessed March 1, 2015, http://faostat3.fao.org/download/FB/FBS/E; Paul West et al., “Leverage Points for Improving Global Food Security and the Environment,” Science 345, no. 6194 (July 2014): 326; Food and Agriculture Organization, Food Outlook: Biannual Report on Global Food Markets (Rome: FAO, 2013), http://fao.org/docrep/018/al999e/al999e.pdf.

2. FAO, The State of Food Insecurity in the World 2015: Meeting the 2015 International Hunger Targets: Taking Stock of Uneven Progress (Rome: FAO, 2015), 8, 44, http://fao.org/3/a-i4646e.pdf; World Health Organization, Childhood Stunting: Context, Causes, Consequences (Geneva: WHO, 2013), http://www.who.int/nutrition/events/2013_ChildhoodStunting_colloquium_14Oct_ConceptualFramework
_colour.pdf?ua=1
; FAO, The State of Food and Agriculture 2013: Food Systems for Better Nutrition (Rome: FAO, 2013), ix, http://fao.org/docrep/018/i3300e/i3300e.pdf.

3. Vaclav Smil, “Nitrogen in Crop Production: An Account of Global Flows,” Global Geochemical Cycles 13, no. 2 (1999): 647; Dana Gunders, Wasted: How America Is Losing Up to 40% of Its Food from Farm to Fork to Landfill (Washington, DC: Natural Resources Defense Council, 2012), http://www.nrdc.org/food/files/wasted-food-IP.pdf.

4. United Nations Environment Programme, Groundwater and Its Susceptibility to Degradation: A Global Assessment of the Problem and Options for Management (Nairobi: UNEP, 2003), http://www.unep.org/dewa/Portals/67/pdf/Groundwater_Prelims_SCREEN.pdf; Bridget Scanlon et al., “Groundwater Depletion and Sustainability of Irrigation in the US High Plains and Central Valley,” Proceedings of the National Academy of Sciences 109, no. 24 (June 2012): 9320; David Steward et al., “Tapping Unsustainable Groundwater Stores for Agricultural Production in the High Plains Aquifer of Kansas, Projections to 2110,” Proceedings of the National Academy of Sciences 110, no. 37 (September 2013): E3477.

5. Dana Cordell and Stuart White, “Life’s Bottleneck: Sustaining the World’s Phosphorus for a Food Secure Future,” Annual Review Environment and Resources 39 (October 2014): 163, 168, 172.

6. David Pimentel, “Soil Erosion: A Food and Environmental Threat,” Journal of the Environment, Development and Sustainability 8 (February 2006): 119. This calculation assumes that a full-bed pickup truck can hold 2.5 cubic yards of soil, that one cubic yard of soil weighs approximately 2,200 pounds, and that world population is 7.2 billion people.

7. FAO, “Greenhouse Gas Emissions from Agriculture, Forestry, and Other Land Use,” March 2014, http://fao.org/resources/ infographics/infographics-details/en/c/218650/; Gunnar Myhre et al., “Chapter 8: Anthropogenic and Natural Radiative Forcing,” in Climate Change 2013: The Physical Science Basis (Geneva: Intergovernmental Panel on Climate Change, 2013), 714, http://www.ipcc.ch/pdf/assessment-report/ar5/wg1/WG1AR5_Chapter08_FINAL.pdf.

8. Sonja Vermeulen, Bruce Campbell, and John Ingram, “Climate Change and Food Systems,” Annual Review of Environment and Resources 37 (November 2012): 195; Bojana Bajželj et al., “Importance of Food-Demand Management for Climate Mitigation,” Nature Climate Change 4 (August 2014): 924–929.

9. Philip Zimbardo, The Lucifer Effect: Understanding How Good People Turn Evil (New York: Random House, 2007).

10. Philip Howard, “Visualizing Consolidation in the Global Seed Industry: 1996–2008,” Sustainability 1, no. 4 (December 2009): 1271; T. Vijay Kumar et al., Ecologically Sound, Economically Viable: Community Managed Sustainable Agriculture in Andhra Pradesh, India (Washington, DC: World Bank, 2009), 6-7, http://siteresources.worldbank.org/EXTSOCIALDEVELOPMENT/Resources/244362-1278965574032/CMSA-Final.pdf.

11. Estimated from FAO, “Family Farming Knowledge Platform,” accessed December 16, 2015, http://www.fao.org/family-farming/background/en/.

12. Fumiaki Imamura et al., “Dietary Quality among Men and Women in 187 Countries in 1990 and 2010: A Systemic Assessment,” The Lancet 3, no. 3 (March 2015): 132–142, http://www.thelancet.com/pdfs/journals/langlo/PIIS2214-109X%2814%2970381-X.pdf.

13. Jules Pretty et al., “Resource-Conserving Agriculture Increases Yields in Developing Countries,” Environmental Science & Technology 40, no. 4 (2006): 1115; Catherine Badgley et al., “Organic Agriculture and the Global Food Supply,” Renewable Agriculture and Food Systems 22, no. 2 (June 2007): 86, 88; International Assessment of Agricultural Knowledge, Science and Technology for Development, Agriculture at a Crossroads: International Assessment of Agricultural Knowledge, Science and Technology for Development (Washington, DC: Island Press, 2009).

14. Cheryl Doss et al., “The Role of Women in Agriculture,” ESA Working Paper No. 11-02 (working paper, FAO, Rome, 2011), 4, http://fao.org/docrep/013/am307e/am307e00.pdf.

15. Gerry Marten and Donna Glee Williams, “Getting Clean: Recovering from Pesticide Addiction,” The Ecologist (December 2006/January 2007): 50–53,http://www.ecotippingpoints.org/resources/download-pdf/publication-the-ecologist.pdf.

16. Randy Hayes and Dan Imhoff, Biosphere Smart Agriculture in a True Cost Economy: Policy Recommendations to the World Bank (Healdsburg, CA: Watershed Media, 2015), 9, http://www.fdnearth.org/files/2015/09/FINAL-Biosphere-Smart-Ag-in-True-Cost-Economy-FINAL-1-page-display-1.pdf.

17. Matt Walpole et al., Smallholders, Food Security, and the Environment (Nairobi: UNEP, 2013), 6, 28, http://www.unep.org/pdf/SmallholderReport_WEB.pdf.