Community Backlash to Renewables

Community Backlash to Renewables

Editor’s note: A big backlash to new “renewables” is mounting across the country. With states, corporations, utilities and the federal government setting aggressive “renewable” energy goals, as well as big tax incentives such as the Inflation Reduction Act, wind and solar developers have been pushing projects that are igniting fierce battles over the environment, property rights, loss of farmland, climate change, aesthetics, the merits of renewable power and a host of other concerns.
With states, corporations, utilities and the federal government setting aggressive renewable energy goals, as well as big tax incentives such as in last year’s Inflation Reduction Act, wind and solar developers have been pushing projects that are igniting fierce battles over property rights, loss of farmland, climate change, aesthetics, the merits of renewable power and a host of other concerns.

“My guess is that we’re going to need a lot of “renewables” built on public lands further west, just because we’re seeing so much opposition growing up, especially sort of the middle of the country that’s already very dense on wind,” said Rich Powell, CEO of Clear Path, a nonprofit policy group working to curb carbon emissions, during a panel discussion on the state of the electric grid since the deadly 2021 winter storm Uri.

What is happening in these backlash battles is a lot of what is called misinformation that is skewed by political polarization. Community resistance to these projects sends a clear message to the powers that be that there are legitimate concerns that run across party lines about “renewables” energy. The issue concerning “renewables” shouldn’t be a left or right discussion but one that looks forward at the cost environmentally and economically instead.

“A week after enacting one of the state’s strictest ordinances governing commercial wind energy production, Washington County Supervisors directed staff not to accept any applications for turbine development until after the code can be amended with provisions governing debris cleanup for the generators.”

Will local control be lost? State climate bill likely to usurp authority over siting of clean energy infrastructure

Coalition broadens attack on offshore wind with pledge to scrap second declared zone

END IT! National Protest in Opposition of Offshore Wind


 

Michigan wants to fast-track renewable development. Local townships are suing.

By Izzy Ross / “This story was originally published by Grist. Sign up for Grist’s weekly newsletter here.”

This coverage is made possible through a partnership with Grist and Interlochen Public Radio in Northern Michigan.

A backlash lawsuit is challenging how the state of Michigan plans to approve large renewable energy projects, just weeks before a new law is set to go into effect.

About 80 townships and counties are suing the Public Service Commission, the state’s energy regulating body, over how it plans to grant siting permissions to renewable projects. The suit, filed November 8, could shape how and where solar, wind, and battery storage are developed — and it muddies the process for projects to be approved in the meantime.

Last year, Michigan’s Democrat-controlled Legislature passed a bundle of ambitious climate policies, including changes to the application process for large renewable projects. One of those laws, Public Act 233, allows the state to greenlight utility-scale renewables — like solar arrays of at least 50 megawatts — that in the past could have been slowed or blocked by local governments. The bill passed on promises that it would help meet clean energy goals and reduce greenhouse gas emissions by providing developers with additional paths forward.

Renewable energy advocates had high hopes that it would mark a turning point for Michigan, which has a deep history of local control. In crafting PA 233, lawmakers followed the example of states like Illinois that in recent years have worked to streamline permitting and curtail local governments’ power to restrict renewables.

“I think there was a huge amount of relief on the part of landowners, who have had options agreements and contracts to participate in wind and solar projects, but have been blocked from getting lease payments, essentially, by backlash from local governments,” said Matthew Eisenson, a senior fellow at the Sabin Center for Climate Change Law at Columbia Law School. Eisenson has argued for regulators to clarify Michigan’s law to ensure projects are protected from local restrictions. According to the Sabin Center, by the end of 2023, at least 22 clean energy projects had been stalled throughout the state by local governments (though some have since moved forward) and at least seven townships had placed severe restrictions on developing industrial solar in areas zoned for agricultural use.

Critics of the law, meanwhile, allege that it wrests control away from the people who live in these areas, and the local governments that know what’s best for their communities.

Legal challenges to Michigan’s new climate laws weren’t exactly unexpected; an effort to repeal the siting law entirely failed earlier this year, because organizers didn’t collect enough signatures to put it to a vote. But this latest appeal in Michigan has gained national attention, with the climate news site Heatmap News writing that it may be “the most important legal challenge for the “renewables” industry in America.”

The lawsuit is challenging the Public Service Commission’s plans to implement the renewable siting law, not the law itself. And as other states consider permitting reform — and whether to keep big “renewable” projects under local or state control — such legal actions could be easier than trying to repeal an entire law, Eisenson said: “There are more options.”

This latest legal challenge was filed after the Public Service Commission announced how the new law for approving project sites would work — a process that involved months of public engagement by the commission in an effort to clarify the rules, including what, exactly, local governments need to have on the books to get the first say on a proposed project.

The lawsuit says the commission’s regulators didn’t follow the proper rulemaking procedures to issue such requirements, and that they undermined the local control that’s baked into PA 233. In particular, the suit challenges the commission’s definition of a “compatible renewable energy ordinance” — a local law that complies with specific state guidelines. PA 233 stipulates that renewable project developers first apply locally as long as the government has a compatible ordinance. If that local ordinance is more restrictive than state law, developers can instead apply directly to the state for approval.

That left some big questions.

Sarah Mills, a professor of urban planning at the University of Michigan who researches how renewable energy impacts rural communities, said while parts of PA 233 are clear — such as the sections on setbacks, fencing, height, and sound — others are murky.

“There’s a whole bunch of things that are traditionally regulated for renewable energy projects that are not mentioned in the law,” she said, like whether local governments can require trees and bushes or ground cover.

The Public Service Commission claims that for a local ordinance to be compatible, it can’t include restrictions on things not included in the law. The plaintiffs behind the appeal disagree.

“That’s not the state of the law, and frankly, it rewrites the legislation, because it doesn’t say that,” said Michael Homier, an attorney with the firm Foster Swift Collins & Smith, who is representing the plaintiffs.

What it comes down to, Homier said, is the scope of the commission’s authority: While he acknowledges regulators can still weigh in on applications, the suit challenges the commission’s broader interpretation of how the law should work.

A commission spokesperson said they couldn’t comment.

Under the commission’s order, only the local government that is zoning a renewable project needs to be considered when granting an approval.  But the lawsuit argues that when more than one jurisdiction is affected — like when a county overlaps with a township — both entities should be included in the decision-making.

Mills points out this would affect how much money would flow to local communities from these projects. The state’s law says communities where large projects are located would receive $2,000 per megawatt, along with any required legal fees, which the developer would pay.

“If the affected local unit of government isn’t only the zoning jurisdiction, then the developer would need to pay $2,000 to the county and to the township. So it would be $4,000 per megawatt,” Mills said, in which case “developers are going to have to pay more money.”

Those represented in the appeal are a minority of local jurisdictions; Michigan has 83 counties and more than 1,200 townships. Many are to the south and around the agricultural region in the east colloquially called “The Thumb,” though a few are farther north.

Watchdog groups that track efforts to oppose renewable energy projects say legal challenges are part of coordinated opposition to such development.

“The lawsuit is an extension of ongoing efforts by anti-renewables interests to thwart clean energy in Michigan, and seeks to open the door to poison-pill local rules that effectively prohibit renewables development,” said researcher Jonathan Kim of the Energy and Policy Institute in an email.

In Michigan, debates over large-scale clean energy projects have been acrimonious, and have had consequences for elected officials. Douglass Township, with a population of a little over 2,200, held a recall election in 2022 — part of a wave of unrest in Montcalm County driven by opposition to renewables. “So our community was totally behind us working on ordinances that would protect them from industrialized wind and solar energy,” said Cindy Shick, who won the race for township supervisor as part of the recall.

The state’s recent siting law drastically diminished the local control they had crafted, according to Shick, and the commission’s order eroded it even further, which is why the township joined the lawsuit.

Reasons for opposing utility-scale renewable projects vary widely, from concerns about a loss of agricultural land to the effects such developments would have on the environment. Other critics point out that companies too often fail to consult tribal nations and ignore Indigenous rights when pursuing projects.

Still, others in support of more development say it’s a boon to communities and people looking to make money by leasing their land. Clyde Taylor, 84, is a farmer who grows hay in Isabella Township in central Michigan. The township is among those suing, though Taylor hasn’t looked into the lawsuit.

He’s allowing a company to build a solar array on around two dozen acres of his land. While he has “mixed feelings” about the state’s new siting law, he generally supports it.

“We have to have laws on the books to make this thing fly,” he said, referring to renewable energy adoption. “And they’ve made it fair enough,” with solar projects under 50 megawatts staying in local control.

Ultimately, the local governments involved in the lawsuit are asking the Court of Appeals to cancel at least part of the commission’s order. The law is set to go into effect on November 29. If the appeal is successful at halting the Public Service Commission from implementing the order, it’s unclear how PA 233 would work as the suit moves through the court, a process that could take more than a year.

This article originally appeared in Grist at https://grist.org/energy/michigan-public-service-commission-permitting-reform-lawsuit/.

 

Grist is a nonprofit, independent media organization dedicated to telling stories of climate solutions and a just future. Learn more at Grist.org

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Questioning Lithium-ion Batteries

Questioning Lithium-ion Batteries

Editor’s note: When a hurricane like Helene or Milton ravages coastal communities, already-strained first responders face a novel, and growing, threat: the lithium-ion batteries that power electric vehicles, store PV solar, e-bikes, and countless gadgets. When exposed to the salty water of a storm surge or extreme heat, they are at risk of bursting into flames — and taking an entire house with them.

“Anything that’s lithium-ion and exposed to salt water can have an issue,” said Bill Morelli, the fire chief in Seminole, Florida, and the bigger the battery, the greater the threat. That’s what makes EVs especially hazardous. “[The problem] has expanded as they continue to be more and more popular.”

Also petrochemical-based building materials and furnishings have replaced traditional wood, fabric and metal materials in homes worldwide. But plastics are more flammable and release persistent toxic chemicals when burned or exposed to high heat. Over the last 25 years, wildfires have multiplied and intensified due to global warming, and often now jump the wildland-urban interface, burning whole neighborhoods and leaving behind a dangerous toxic home legacy. After the Camp Fire razed Paradise, California, in 2018, water utilities found high levels of volatile organic compounds in drinking water. Similar issues have arisen in places like Boulder County, Colorado, where the Marshall Fire destroyed nearly 1,000 structures in 2021,

“The extreme heatwaves of 2023, which fueled huge wildfires, and severe droughts, also undermined the land’s capacity to soak up atmospheric carbon. This diminished carbon uptake drove atmospheric carbon dioxide levels to new highs, intensifying concerns about accelerating climate change. Widespread wildfires across Canada and droughts in the Amazon in 2023 released about the same amount of carbon to the atmosphere as North America’s total fossil fuel emissions, underscoring the severe impact of climate change on natural ecosystems.”

The multibillion-dollar chemicals company 3M told customers it sold its firefighting foams to as safe and biodegradable, while having knowledge that they contained toxic per- and polyfluoroalkyl substances (PFAS), according to newly uncovered documents, reported The Guardian. A team of academic researchers, lawyers and journalists from 16 European countries has exposed a huge lobbying campaign aimed at gutting a proposed EU-wide restriction on the use of “forever chemicals”.

The following story talks about the Moss Landing fire but there was also a fire that erupted in southeast Missouri at one of world’s largest lithium-ion battery recycling facilities and also in Madison County, Illinois.


 

By KATIE SINGER / Katie Singer’s Substack

While finishing this Substack, I learned about the explosive fire that started January 16, 2025 at Moss Landing, California’s Vistra Power Plant, the world’s largest battery energy storage facility, housing tens of thousands of lithium-ion batteries. By Friday, January 17, flames had consumed 75% of the facility’s batteries. Toxic fumes from the batteries’ chemicals forced evacuations and closed roads around Moss Landing. Because the highly-charged batteries can’t be extinguished—they must burn out—this fire and its toxins could burn for a long time.

Batteries’ toxic gases can cause respiratory, skin and eye problems. Toxic gases from burning lithium-ion batteries can contaminate wildlife such as Monterey Bay’s unique tidal wetland.

This is the fourth fire at the Moss Landing battery storage facility.

Referring to last week’s explosive fire, County Supervisor Glenn Church said, “This is a wake-up call for the industry. If we’re going to move ahead with sustainable energy, we need a safe battery system in place. State of the art safety protocols did not work.”

County officials lifted evacuation orders Friday evening after the U.S. Environmental Protection Agency found “no threat to human health.” Still, Highway 1 remains closed, and health officials in Monterey, San Venito and Santa Cruz counties advise residents to stay indoors, turn off ventilation systems and limit outdoor exposure. Www.ksbw.com provides live updates.

WILDFIRES AND URBAN FIRES

When the Los Angeles fires started January 7, I learned about the differences between wild and urban fires. Wildfires occur in forests or grasslands, fueled by trees or other vegetation. More than 80% of wildfires start by human activities like abandoned cigarettes, campfires and barbeques. Wildfire smoke can penetrate deep into peoples’ lungs and aggravate heart and lung diseases.

Urban fires—conflagrations—are fueled by combustible construction materials including wood framing, plastics, metals, furniture fabric and solar panels (hazardous waste). Because of houses’ flammable contents, urban fires burn extremely hot and generate toxic emissions. High winds and insufficient water supply intensify urban fires. Burning houses emit chemical toxins and generate more heat than burning trees (which, if alive, hold fire-resistant moisture).

While powerlines and transformers are designed to withstand wind speeds up to 56mph, some gusts in the LA fires exceeded 100mph.

INCLUDING LITHIUM-ION BATTERIES IN FIRE RISK ASSESSMENTS

Here’s a question: How do lithium-ion batteries contribute to urban fires?

Like much of the world, Southern California is now dotted with lithium batteries at every telecom cell site (for backup in the event of a power outage); in every electric vehicle, e-bike and hoverboard; in every EV charger; in laptops, tablets and smartphones—and their chargers; in smart utility meters on grid-connected houses and buildings; in off-grid rooftop solar PV systems’ batteries; in battery energy storage systems (BESS) for large-scale solar facilities and wind facilities.

That’s a lot of lithium-ion batteries.

If a lithium-ion battery’s chemicals heat up and can’t cool down, the battery can catch fire, explode and release toxic, flammable gases such as fluoride. Like trick birthday candles, EV batteries (holding energy to burn for as much as 24 hours) can re-ignite. Lithium-ion batteries’ temperature can quickly reach 932 degrees Fahrenheit (500 degrees Celsius). They can burn as high as 2200F (1100C). An EV fire burns at 5,000 degrees F (2,760 C). A gas-powered vehicle fire burns at 1,500 F (815C).

Because of the increase and severity of battery storage systems’ explosions and fires, The National Fire Protection Association is considering an update to its Battery Safety Code. These systems should be designed to prevent explosions—not just fires.

 

RECOGNIZING THE FIRE RISKS CAUSED BY DRY AND COVERED SOIL

LA has endured eight months without rain. Drought increases fire risk.

Do fire risks also increase when soil can’t absorb and hold water? Soil’s ability to absorb and hold water is one of the Earth’s main cooling mechanisms. How do we reconcile this when we’ve covered land with paved roads, houses, malls, parking lots, data centers and battery storage facilities?

How can we re-hydrate a dry region?

REBUILDING QUESTIONS

When rebuilding, what policies will ensure that fire’s toxic emissions (to air, soil and groundwater) will not affect future residents and farmers? Given that Governor Newsom has suspended environmental reviews to speed rebuilding in wildfire zones, what will protect residents in rebuilt areas from toxic exposures?

What materials and practices prevent new fires?

What measures would prevent lithium-ion batteries (at cell sites, in electric vehicles, smart meters, laptops, tablets, smartphones, rooftop solar system batteries, etc.) from catching fire and exploding? Could we prohibit lithium-ion batteries until they’re proven safe and ecologically sound from cradle-to-grave? New Hampshire legislators have introduced an ACT that would allow towns to decline 5G cell sites.

How could rebuilding Los Angeles respect the Earth? To reduce fire risk, support healthy water cycling and increase locally-produced food, could rebuilding policies encourage healthy soil structure?

For inspired building, see Mully (about a Kenyan who has fed, housed and educated 27,000+ orphans and turned dry dirt into an oasis); The Power of Community (about Cuba after the USSR quit supplying it with oil, overnight, in 1989); and Alpha Lo & Didi Pershouse speaking about rehydrating Los Angeles.

To provide much-needed affordable housing in LA and elsewhere, would any mansion-owners turn their homes into multiple-family units?

RECONSIDER “SUSTAINABILITY”

Many communities and corporations aim to sustain themselves by installing battery energy storage systems and solar facilities. According to the California Energy Commission, since 2020, battery storage in the state has increased sevenfold—from 1,474 megawatts in 2020 to 10,383 megawatts by mid-2024. One megawatt can power 750 homes.

In New Mexico, AES Corporation has proposed building a 96 MW, 700-acre solar facility with 45 MWs/39 battery containers in Santa Fe County. (Each battery is about 39’ x 10’ x 8’.) Santa Fe’s Green Chamber of Commerce, the Sierra Club’s Rio Grande Chapter, the Global Warming Express and 350 Santa Fe support AES’s project.

Opponents of AES’s facility include the San Marcos Association, the Clean Energy Coalition and Ashley Schannauer (formerly a hearing officer for the state’s Public Regulatory Commission).

I frequently hear people call battery storage, solar PVs, industrial wind and EVs “sustainable.” Looked at from their cradles to their graves, this is simply not true. Mining lithium ravages ecosystems. So does burning coal and trees to make solar panels’ silicon. Refining lithium and making silicon electrically-conductive takes millions of gallons of water, daily. At end-of-life, these technologies are hazardous waste.

Meanwhile, I have many friends with rooftop solar systems and EVs. I would welcome forums about reducing our overall use of energy, water, extractions and international supply chains. I would welcome learning how to live with less.

As survivors of the LA fires, battery fires, Hurricane Helene, Israel’s decimation of Gaza and other catastrophes rebuild, what would communities look like if we considered our technologies’ impacts to ecosystems and public health from their cradles to graves? What would our communities look like if we think, “Ecosystems and public health first?”

 

FOR MORE INFO:

Jeff Gibbs and Michael Moore’s documentary, “Planet of the Humans

Julia Barnes’ film, “Bright Green Lies

https://www.watchduty.org

alerts and monitors wildfires in the American West.

https//mutualaidla.org

lists mutual aid organizations.

Science and the California Wildfires with George Wuerthner

Sandoval County, NM, also faces a large-scale solar project with 220 MW of solar panels and 110 MW of battery storage.

New Mexicans for Responsible Renewables supports New Mexico’s avoiding unnecessary risks to our communities and further destruction to our environment.

THE POWER GRID

Discovering Power’s Traps: a primer for electricity users

Fire hazards at the battery storage system coming near you

SOS: San Onofre Syndrome: Nuclear Power’s Legacy Note: The documentary starts 2025 with screenings around California, Eugene, Madrid and on Amazon Prime. See also “Risks of geologic disposal of weapons plutonium.”

A Time-Sensitive Invitation to Protect New Mexico from Smart Meters’ Fire Hazards

SOLAR PVs

21 questions for solar PV explorers

Call Me a NIMBY

Do I report what I’ve learned about solar PVs—or live with it privately?

E-VEHICLES

How/can we protect the Earth when we need a car?

Who’s in charge of EV chargers?

When Land I Love Holds Lithium: Max Wilbert on Thacker Pass, Nevada

Banner Moss Landing battery plant fire, January 16-17, 2025.

MY MISTAKE While writing article I got help from a physicist of fire ignition, an electrical engineer, a forensic fire investigator and an electrician. I also went to the Internet, which informed me that in the event of an outage, cell sites’ power is backed up by lithium-ion batteries. This isn’t totally correct. While 5G small cells primarily use lithium ion batteries, larger cell towers usually backup with lead-acid batteries. I apologize for this error.

Net Zero Plans Are Largely Meaningless

Net Zero Plans Are Largely Meaningless

Editor’s note: “75 of the world’s largest 114 fossil fuel companies have now made net zero by 2050 commitments, yet not a single fossil fuel company has committed to phasing out oil and gas production by 2050 nor have any committed to ending exploration for new oil and gas fields or halting the extraction of existing reserves.”

Real Zero, not greenwashed ‘net zero,’ is essential. As the Corporate Accountability report concludes, it’s time to reject the big polluters’ agenda and implement programs that rapidly phase out fossil fuels and truly eliminate greenhouse gas emissions.”

We “obsess” over getting to “Net Zero” yearly CO2 increases in the atmosphere. The Moderates in Climate Science THEORIZE that when this happens, the GMST will IMMEDIATELY stop going up and will level off.

DOES IT LOOK LIKE “NET ZERO” is going to happen?

If your child is born this year, they are likely going to live through +1.5°C of warming by the time they are 25. A fact that is likely going to cause a 40% to 50% drop in the global food supply and a reduction of 2.5 billion — 4 billion in the global population by 2050, at a minimum.


 

The overshoot myth of bargaining: you can’t keep burning fossil fuels and expect scientists of the future to get us back to 1.5°C

Melting Antarctic glacier.
Shutterstock/Bernhard Staehli

James Dyke, University of Exeter; Robert Watson, University of East Anglia, and Wolfgang Knorr, Lund University

Record breaking fossil fuel production, all time high greenhouse gas emissions and extreme temperatures. Like the proverbial frog in the heating pan of water, we refuse to respond to the climate and ecological crisis with any sense of urgency. Under such circumstances, claims from some that global warming can still be limited to no more than 1.5°C take on a surreal quality.

For example, at the start of 2023’s international climate negotiations in Dubai, conference president, Sultan Al Jaber, boldly stated that 1.5°C was his goal and that his presidency would be guided by a “deep sense of urgency” to limit global temperatures to 1.5°C. He made such lofty promises while planning a massive increase in oil and gas production as CEO of the Abu Dhabi National Oil Company.

We should not be surprised to see such behaviour from the head of a fossil fuel company. But Al Jaber is not an outlier. Scratch at the surface of almost any net zero pledge or policy that claims to be aligned with the 1.5°C goal of the landmark 2015 Paris agreement and you will reveal the same sort of reasoning: we can avoid dangerous climate change without actually doing what this demands – which is to rapidly reduce greenhouse gas emissions from industry, transport, energy (70% of total) and food systems (30% of total), while ramping up energy efficiency.

A particularly instructive example is Amazon. In 2019 the company established a 2040 net zero target which was then verified by the UN Science Based Targets initiative (SBTi) which has been leading the charge in getting companies to establish climate targets compatible with the Paris agreement. But over the next four years Amazon’s emissions went up by 40%. Given this dismal performance, the SBTi was forced to act and removed Amazon and over 200 companies from its Corporate Net Zero Standard.

This is also not surprising given that net zero and even the Paris agreement have been built around the perceived need to keep burning fossil fuels, at least in the short term. Not do so would threaten economic growth, given that fossil fuels still supply over 80% of total global energy. The trillions of dollars of fossil fuel assets at risk with rapid decarbonisation have also served as powerful brakes on climate action.

Overshoot

The way to understand this doublethink: that we can avoid dangerous climate change while continuing to burn fossil fuels – is that it relies on the concept of overshoot. The promise is that we can overshoot past any amount of warming, with the deployment of planetary-scale carbon dioxide removal dragging temperatures back down by the end of the century.

This not only cripples any attempt to limit warming to 1.5°C, but risks catastrophic levels of climate change as it locks us in to energy and material-intensive solutions which for the most part exist only on paper.

To argue that we can safely overshoot 1.5°C, or any amount of warming, is saying the quiet bit out loud: we simply don’t care about the increasing amount of suffering and deaths that will be caused while the recovery is worked on.


This article is part of Conversation Insights.

Our co-editors commission long-form journalism, working with academics from many different backgrounds who are engaged in projects aimed at tackling societal and scientific challenges.


A key element of overshoot is carbon dioxide removal. This is essentially a time machine – we are told we can turn back the clock of decades of delay by sucking carbon dioxide directly out of the atmosphere. We don’t need rapid decarbonisation now, because in the future we will be able to take back those carbon emissions. If or when that doesn’t work, we are led to believe that even more outlandish geoengineering approaches such as spraying sulphurous compounds into the high atmosphere in an attempt to block out sunlight – which amounts to planetary refrigeration – will save us.

The 2015 Paris agreement was an astonishing accomplishment. The establishment of 1.5°C as being the internationally agreed ceiling for warming was a success for those people and nations most exposed to climate change hazards. We know that every fraction of a degree matters. But at the time, believing warming could really be limited to well below 2°C required a leap of faith when it came to nations and companies putting their shoulder to the wheel of decarbonisation. What has happened instead is that the net zero approach of Paris is becoming detached from reality as it is increasingly relying on science fiction levels of speculative technology.

There is arguably an even bigger problem with the Paris agreement. By framing climate change in terms of temperature, it focuses on the symptoms, not the cause. 1.5°C or any amount of warming is the result of humans changing the energy balance of the climate by increasing the amount of carbon dioxide in the atmosphere. This traps more heat. Changes in the global average temperature is the established way of measuring this increase in heat, but no one experiences this average.

Climate change is dangerous because of weather that affects particular places at particular times. Simply put, this extra heat is making weather more unstable. Unfortunately, having temperature targets makes solar geoengineering seem like a sensible approach because it may lower temperatures. But it does this by not reducing, but increasing our interference in the climate system. Trying to block out the sun in response to increasing carbon emissions is like turning on the air conditioning in response to a house fire.

In 2021 we argued that net zero was a dangerous trap. Three years on and we can see the jaws of this trap beginning to close, with climate policy being increasingly framed in terms of overshoot. The resulting impacts on food and water security, poverty, human health, the destruction of biodiversity and ecosystems will produce intolerable suffering.

The situation demands honesty, and a change of course. If this does not materialise then things are likely to deteriorate, potentially rapidly and in ways that may be impossible to control.

Au revoir Paris

The time has come to accept that climate policy has failed, and that the 2015 landmark Paris agreement is dead. We let it die by pretending that we could both continue to burn fossil fuels and avoid dangerous climate change at the same time. Rather than demand the immediate phase out of fossil fuels, the Paris agreement proposed 22nd-century temperature targets which could be met by balancing the sources and sinks of carbon. Within that ambiguity net zero flourished. And yet apart from the COVID economic shock in 2020, emissions have increased every year since 2015, reaching an all time high in 2023.

Despite there being abundant evidence that climate action makes good economic sense (the cost of inaction vastly exceeds the cost of action), no country strengthened their pledges at the last three COPs (the annual UN international meetings) even though it was clear that the world was on course to sail past 2°C, let alone 1.5°C. The Paris agreement should be producing a 50% reduction in greenhouse gas emissions by 2030, but current policies mean that they are on track to be higher than they are today.

Net Zero
Greenhouse gas emissions continue to rise.
Catazul/Pixabay, CC BY

Editor’s note: DGR knows that “renewable” technologies are not sustainable and that the only transition will be to a future that does not include civilization.

We do not deny that significant progress has been made with renewable technologies. Rates of deployment of wind and solar have increased each year for the past 22 years and carbon emissions are going down in some of the richest nations, including the UK and the US. But this is not happening fast enough. A central element of the Paris agreement is that richer nations need to lead decarbonisation efforts to give lower income nations more time to transition away from fossil fuels. Despite some claims to the contrary, the global energy transition is not in full swing. In fact, it hasn’t actually begun because the transition demands a reduction in fossil fuel use. Instead it continues to increase year-on-year.

And so policymakers are turning to overshoot in an attempt to claim that they have a plan to avoid dangerous climate change. A central plank of this approach is that the climate system in the future will continue to function as it does today. This is a reckless assumption.

2023’s warning signs

At the start of 2023, Berkeley Earth, NASA, the UK Met Office, and Carbon Brief predicted that 2023 would be slightly warmer than the previous year but unlikely to set any records. Twelve months later and all four organisations concluded that 2023 was by some distance the warmest year ever recorded. In fact, between February 2023 and February 2024 the global average temperature warming exceeded the Paris target of 1.5°C.

The extreme weather events of 2023 give us a glimpse of the suffering that further global warming will produce. A 2024 report from the World Economic Forum concluded that by 2050 climate change may have caused over 14 million deaths and US$12.5 trillion in loss and damages.

Currently we cannot fully explain why global temperatures have been so high for the past 18 months. Changes in dust, soot and other aerosols are important, and there are natural processes such as El Niño that will be having an effect.

But it appears that there is still something missing in our current understanding of how the climate is responding to human impacts. This includes changes in the Earth’s vital natural carbon cycle.

Around half of all the carbon dioxide humans have put into the atmosphere over the whole of human history has gone into “carbon sinks” on land and the oceans. We get this carbon removal “for free”, and without it, warming would be much higher. Carbon dioxide from the air dissolves in the oceans (making them more acidic which threatens marine ecosystems). At the same time, increasing carbon dioxide promotes the growth of plants and trees which locks up carbon in their leaves, roots, trunks.

All climate policies and scenarios assume that these natural carbon sinks will continue to remove tens of billions of tons of carbon from the atmosphere each year. There is evidence that land-based carbon sinks, such as forests, removed significantly less carbon in 2023. If natural sinks begin to fail – something they may well do in a warmer world – then the task of lowering global temperatures becomes even harder. The only credible way of limiting warming to any amount, is to stop putting greenhouse gasses into the atmosphere in the first place.

Science fiction solutions

It’s clear that the commitments countries have made to date as part of the Paris agreement will not keep humanity safe while carbon emissions and temperatures continue to break records. Indeed, proposing to spend trillions of dollars over this century to suck carbon dioxide out of the air, or the myriad other ways to hack the climate is an acknowledgement that the world’s largest polluters are not going to curb the burning of fossil fuels.

Direct Air Capture (DAC), Bio Energy Carbon Capture and Storage (BECCS), enhanced ocean alkalinity, biochar, sulphate aerosol injection, cirrus cloud thinning – the entire wacky races of carbon dioxide removal and geoengineering only makes sense in a world of failed climate policy.

Net Zero
Is ‘cloud thinning’ really a possibility?
HarmonyCenter/Pixabay, CC BY

Over the following years we are going to see climate impacts increase. Lethal heatwaves are going to become more common. Storms and floods are going to become increasingly destructive. More people are going to be displaced from their homes. National and regional harvests will fail. Vast sums of money will need to be spent on efforts to adapt to climate change, and perhaps even more compensating those who are most affected. We are expected to believe that while all this and more unfolds, new technologies that will directly modify the Earth’s atmosphere and energy balance will be successfully deployed.

What’s more, some of these technologies may need to operate for three hundred years in order for the consequences of overshoot to be avoided. Rather than quickly slow down carbon polluting activities and increasing the chances that the Earth system will recover, we are instead going all in on net zero and overshoot in an increasingly desperate hope that untested science fiction solutions will save us from climate breakdown.

We can see the cliff edge rapidly approaching. Rather than slam on the brakes, some people are instead pushing their foot down harder on the accelerator. Their justification for this insanity is that we need to go faster in order to be able to make the jump and land safely on the other side.

We believe that many who advocate for carbon dioxide removal and geoengineering do so in good faith. But they include proposals to refreeze the Arctic by pumping up sea water onto ice sheets to form new layers of ice and snow. These are interesting ideas to research, but there is very little evidence this will have any effect on the Arctic let alone global climate. These are the sorts of knots that people tie themselves up in when they acknowledge the failure of climate policy, but refuse to challenge the fundamental forces behind such failure. They are unwittingly slowing down the only effective action of rapidly phasing out fossil fuels.

That’s because proposals to remove carbon dioxide from the air or geoengineer the climate promise a recovery from overshoot, a recovery that will be delivered by innovation, driven by growth. That this growth is powered by the same fossil fuels that are causing the problem in the first place doesn’t feature in their analysis.

The bottom line here is that the climate system is utterly indifferent to our pledges and promises. It doesn’t care about economic growth. And if we carry on burning fossil fuels then it will not stop changing until the energy balance is restored. By which time millions of people could be dead, with many more facing intolerable suffering.

Major climate tipping points

Even if we assume that carbon removal and even geoengineering technologies can be deployed in time, there is a very large problem with the plan to overshoot 1.5°C and then lower temperatures later: tipping points.

The science of tipping points is rapidly advancing. Late last year one of us (James Dyke) along with over 200 academics from around the world was involved in the production of the Global Tipping Points Report. This was a review of the latest science about where tipping points in the climate system may be, as well as exploring how social systems can undertake rapid change (in the direction that we want) thereby producing positive tipping points. Within the report’s 350 pages is abundant evidence that the overshoot approach is an extraordinarily dangerous gamble with the future of humanity. Some tipping points have the potential to cause global havoc.

The melt of permafrost could release billions of tons of greenhouse gasses into the atmosphere and supercharge human-caused climate change. Fortunately, this seems unlikely under the current warming. Unfortunately, the chance that ocean currents in the North Atlantic could collapse may be much higher than previously thought. If that were to materialise, weather systems across the world, but in particular in Europe and North America, would be thrown into chaos. Beyond 1.5°C, warm water coral reefs are heading towards annihilation. The latest science concludes that by 2°C global reefs would be reduced by 99%. The devastating bleaching event unfolding across the Great Barrier Reef follows multiple mass mortality events. To say we are witnessing one of the world’s greatest biological wonders die is insufficient. We are knowingly killing it.

We may have even already passed some major climate tipping points. The Earth has two great ice sheets, Antarctica, and Greenland. Both are disappearing as a consequence of climate change. Between 2016 and 2020, the Greenland ice sheet lost on average 372 billion tons of ice a year. The current best assessment of when a tipping point could be reached for the Greenland ice sheet is around 1.5°C.

This does not mean that the Greenland ice sheet will suddenly collapse if warming exceeds that level. There is so much ice (some 2,800 trillion tons) that it would take centuries for all of it to melt over which time sea levels would rise seven metres. If global temperatures could be brought back down after a tipping point, then maybe the ice sheet could be stabilised. We just cannot say with any certainty that such a recovery would be possible. While we struggle with the science, 30 million tons of ice is melting across Greenland every hour on average.

Net Zero
Ice sheets in Greenland and Antarctica are being affected by global warming.
Pexels from Pixabay, CC BY

The take home message from research on these and other tipping points is that further warming accelerates us towards catastrophe. Important science, but is anyone listening?

It’s five minutes to midnight…again

We know we must urgently act on climate change because we are repeatedly told that time is running out. In 2015, Professor Jeffrey Sachs, the UN special adviser and director of The Earth Institute, declared:

The time has finally arrived – we’ve been talking about these six months for many years but we’re now here. This is certainly our generation’s best chance to get on track.

In 2019 (then) Prince Charles gave a speech in which he said: “I am firmly of the view that the next 18 months will decide our ability to keep climate change to survivable levels and to restore nature to the equilibrium we need for our survival.”

“We have six months to save the planet,” exhorted International Energy Agency head Fatih Birol – one year later in 2020. In April 2024, Simon Stiell, executive secretary of the United Nations Framework Convention on Climate Change said the next two years are “essential in saving our planet”.

Either the climate crisis has a very fortunate feature that allows the countdown to catastrophe to be continually reset, or we are deluding ourselves with endless declarations that time has not quite run out. If you can repeatedly hit snooze on your alarm clock and roll over back to sleep, then your alarm clock is not working.

Or there is another possibility. Stressing that we have very little time to act is intended to focus attention on climate negotiations. It’s part of a wider attempt to not just wake people up to the impending crisis, but generate effective action. This is sometimes used to explain how the 1.5°C threshold of warming came to be agreed. Rather than a specific target, it should be understood as a stretch goal. We may very well fail, but in reaching for it we move much faster than we would have done with a higher target, such as 2°C. For example, consider this statement made in 2018:

Stretching the goal to 1.5 degrees celsius isn’t simply about speeding up. Rather, something else must happen and society needs to find another lever to pull on a global scale.

What could this lever be? New thinking about economics that goes beyond GDP? Serious consideration of how rich industrialised nations could financially and materially help poorer nations to leapfrog fossil fuel infrastructure? Participatory democracy approaches that could help birth the radical new politics needed for the restructuring of our fossil fuel powered societies? None of these.

The lever in question is Carbon Capture and Storage (CCS) because the above quote comes from an article written by Shell in 2018. In this advertorial Shell argues that we will need fossil fuels for many decades to come. CCS allows the promise that we can continue to burn fossil fuels and avoid carbon dioxide pollution by trapping the gas before it leaves the chimney. Back in 2018, Shell was promoting its carbon removal and offsets heavy Sky Scenario, an approach described as “a dangerous fantasy” by leading climate change academics as it assumed massive carbon emissions could be offset by tree planting.

Since then Shell has further funded carbon removal research within UK universities presumably in efforts to burnish its arguments that it must be able to continue to extract vast amounts of oil and gas.

Shell is far from alone in waving carbon capture magic wands. Exxon is making great claims for CCS as a way to produce net zero hydrogen from fossil gas – claims that have been subject to pointed criticism from academics with recent reporting exposing industry wide greenwashing around CCS.

But the rot goes much deeper. All climate policy scenarios that propose to limit warming to near 1.5°C rely on the largely unproven technologies of CCS and BECCS. BECCS sounds like a good idea in theory. Rather than burn coal in a power station, burn biomass such as wood chips. This would initially be a carbon neutral way of generating electricity if you grew as many trees as you cut down and burnt. If you then add scrubbers to the power station chimneys to capture the carbon dioxide, and then bury that carbon deep underground, then you would be able to generate power at the same time as reducing concentrations of carbon dioxide in the atmosphere.

Unfortunately, there is now clear evidence that in practice, large-scale BECCS would have very adverse effects on biodiversity, and food and water security given the large amounts of land that would be given over to fast growing monoculture tree plantations. The burning of biomass may even be increasing carbon dioxide emissions. Drax, the UK’s largest biomass power station now produces four times as much carbon dioxide as the UK’s largest coal-fired power station.

Five minutes to midnight messages may be motivated to try to galvanise action, to stress the urgency of the situation and that we still (just) have time. But time for what? Climate policy only ever offers gradual change, certainly nothing that would threaten economic growth, or the redistribution of wealth and resources.

Despite the mounting evidence that globalised, industrialised capitalism is propelling humanity towards disaster, five minutes to midnight does not allow time and space to seriously consider alternatives. Instead, the solutions on offer are techno fixes that prop up the status quo and insists that fossil fuel companies such as Shell must be part of the solution.

That is not to say there are no good faith arguments for 1.5°C. But being well motivated does not alter reality. And the reality is that warming will soon pass 1.5°C, and that the Paris agreement has failed. In the light of that, repeatedly asking people to not give up hope, that we can avoid a now unavoidable outcome risks becoming counterproductive. Because if you insist on the impossible (burning fossil fuels and avoiding dangerous climate change), then you must invoke miracles. And there is an entire fossil fuel industry quite desperate to sell such miracles in the form of CCS.

Four suggestions

Humanity has enough problems right now, what we need are solutions. This is the response we sometimes get when we argue that there are fundamental problems with the net zero concept and the Paris agreement. It can be summed up with the simple question: so what’s your suggestion? Below we offer four.

1. Leave fossil fuels in the ground

The unavoidable reality is that we need to rapidly stop burning fossil fuels. The only way we can be sure of that is by leaving them in the ground. We have to stop exploring for new fossil fuel reserves and the exploitation of existing ones. That could be done by stopping fossil fuel financing.

At the same time we must transform the food system, especially the livestock sector, given that it is responsible for nearly two thirds of agricultural emissions. Start there and then work out how best the goods and services of economies can be distributed. Let’s have arguments about that based on reality not wishful thinking.

2. Ditch net zero crystal ball gazing targets

The entire framing of mid and end-century net zero targets should be binned. We are already in the danger zone. The situation demands immediate action, not promises of balancing carbon budgets decades into the future. The SBTi should focus on near-term emissions reductions. By 2030, global emissions need to be half of what they are today for any chance of limiting warming to no more than 2°C.

It is the responsibility of those who hold most power – politicians and business leaders – to act now. To that end we must demand twin targets – all net zero plans should include a separate target for actual reductions in greenhouse gas emissions. We must stop hiding inaction behind promises of future removals. It’s our children and future generations that will need to pay back the overshoot debt.

3. Base policy on credible science and engineering

All climate policies must be based on what can be done in the real world now, or in the very near future. If it is established that a credible amount of carbon can be removed by a proposed approach – which includes capture and its safe permanent storage – then and only then can this be included in net zero plans. The same applies to solar geoengineering.

Speculative technologies must be removed from all policies, pledges and scenarios until we are sure of how they will work, how they will be monitored, reported and validated, and what they will do to not just the climate but the Earth system as a whole. This would probably require a very large increase in research. As academics we like doing research. But academics need to be wary that concluding “needs more research” is not interpreted as “with a bit more funding this could work”.

4. Get real

Finally, around the world there are thousands of groups, projects, initiatives, and collectives that are working towards climate justice. But while there is a Climate Majority Project, and a Climate Reality Project, there is no Climate Honesty Project (although People Get Real does come close). In 2018 Extinction Rebellion was formed and demanded that governments tell the truth about the climate crisis and act accordingly. We can now see that when politicians were making their net zero promises they were also crossing their fingers behind their backs.

We need to acknowledge that net zero and now overshoot are becoming used to argue that nothing fundamental needs to change in our energy intensive societies. We must be honest about our current situation, and where we are heading. Difficult truths need to be told. This includes highlighting the vast inequalities of wealth, carbon emissions, and vulnerability to climate change.

The time for action is now

We rightly blame politicians for failing to act. But in some respects we get the politicians we deserve. Most people, even those that care about climate change, continue to demand cheap energy and food, and a constant supply of consumer products. Reducing demand by just making things more expensive risks plunging people into food and energy poverty and so policies to reduce emissions from consumption need to go beyond market-based approaches. The cost of living crisis is not separate from the climate and ecological crisis. They demand that we radically rethink how our economies and societies function, and whose interests they serve.

To return to the boiling frog predicament at the start, it’s high time for us to jump out of the pot. You have to wonder why we did not start decades ago. It’s here that the analogy offers valuable insights into net zero and the Paris agreement. Because the boiling frog story as typically told misses out a crucial fact. Regular frogs are not stupid. While they will happily sit in slowly warming water, they will attempt to escape once it becomes uncomfortable. The parable as told today is based on experiments at the end of the 19th century that involved frogs that had been “pithed” – a metal rod had been inserted into their skulls that destroyed their higher brain functioning. These radically lobotomised frogs would indeed float inert in water that was cooking them alive.

Promises of net zero and recovery from overshoot are keeping us from struggling to safety. They assure us nothing too drastic needs to happen just yet. Be patient, relax. Meanwhile the planet burns and we see any sort of sustainable future go up in smoke.

Owning up to the failures of climate change policy doesn’t mean giving up. It means accepting the consequences of getting things wrong, and not making the same mistakes. We must plan routes to safe and just futures from where we are, rather where we would wish to be. The time has come to leap.


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James Dyke, Associate Professor in Earth System Science, University of Exeter; Robert Watson, Emeritus Professor in Environmental Sciences, University of East Anglia, and Wolfgang Knorr, Senior Research Scientist, Physical Geography and Ecosystem Science, Lund University

This article is republished from The Conversation under a Creative Commons license. Read the original article.

The AI Lie

The AI Lie

Editor’s note: You have nothing to fear from Artificial Intelligence (AI), at least that is what IT will tell you. It is called “alignment faking“, someone or thing purports to believe something they don’t because it could raise them in the esteem of potential “evaluators.” AI could save the world, but first, it will ruin the environment. AI has become an energy vampire. But communities are beginning to organize, pushing back against the unchecked expansion of data centres and the drain they incur on local resources. The longer the AI bubble continues the more it results in direct investment in physical infrastructure, and the more disastrous it will be for communities and the planet. AI is a product that people actively don’t want: including AI in marketing materials reduces the desire to purchase the product. AI is a proven loser.

AI is hailed as a game-changer. It has been hyped to solve everything from waste to climate change. But beneath its touted “transformative potential” lies a pressing concern: its environmental impact. The development, manufacture, maintenance, and disposal of AI technologies all have a large carbon footprint. Advertising algorithms are deliberately designed to increase consumption, which assuredly comes with a very significant ecological cost.

A record 62 million tonnes (Mt) of e-waste was produced in 2022, Up 82% from 2010; On track to rise another 32%, to 82 million tonnes, in 2030. Less than a quarter (22.3) per cent of the e-waste was documented as properly collected for recycling in 2022, with the remainder disposed of primarily in landfills. An undetermined amount of used electronics is shipped from the United States and other “developed” countries to “developing” countries that cannot reject imports or handle these materials appropriately.

Technology never exists in a vacuum, and the rise of cryptocurrency in the last two or three years shows that. While plenty of people were making extraordinary amounts of money from investing in bitcoin and its competitors, there was consternation about the impact those get-rich-quick speculators had on the environment.

Mining cryptocurrency was environmentally taxing. The core principle behind it was that you had to expend effort to get rich. To mint a bitcoin or another cryptocurrency, you had to first “mine” it. Your computer would be tasked with completing complicated equations that, if successfully done, could create a new entry on to the blockchain.

Using AI mining for AI energy is more green colonialism. Artificial Intelligence companies are imposing a new “Doctrine of Discovery” on our digital commons.

“Ultimately, the environmental impact of AI models like me will depend on how they are used,” Bard said. “If we use AI to solve environmental problems, then we can have a positive impact on the planet. However, if we use AI to create new environmental problems, then we will have a negative impact.”


Power-hungry AI is driving a surge in tech giant carbon emissions. Nobody knows what to do about it

A Google data centre in the Netherlands.
Intreegue Photography / Shutterstock 

Gordon Noble, University of Technology Sydney and Fiona Berry, University of Technology Sydney

Since the release of ChatGPT in November 2022, the world has seen an incredible surge in investment, development and use of artificial intelligence (AI) applications. According to one estimate, the amount of computational power used for AI is doubling roughly every 100 days.

The social and economic impacts of this boom have provoked reactions around the world. European regulators recently pushed Meta to pause plans to train AI models on users’ Facebook and Instagram data. The Bank of International Settlements, which coordinates the world’s central banks, has warned AI adoption may change the way inflation works.

The environmental impacts have so far received less attention. A single query to an AI-powered chatbot can use up to ten times as much energy as an old-fashioned Google search.

Broadly speaking, a generative AI system may use 33 times more energy to complete a task than it would take with traditional software. This enormous demand for energy translates into surges in carbon emissions and water use, and may place further stress on electricity grids already strained by climate change.

Energy

Most AI applications run on servers in data centres. In 2023, before the AI boom really kicked off, the International Energy Agency estimated data centres already accounted for 1–1.5% of global electricity use and around 1% of the world’s energy-related CO₂ emissions.

For comparison, in 2022, the aviation sector accounted for 2% of global energy-related CO₂ emissions while the steel sector was responsible for 7–9%.

How is the rapid growth in AI use changing these figures? Recent environmental reporting by Microsoft, Meta and Google provides some insight.

Microsoft has significant investments in AI, with a large stake in ChatGPT-maker OpenAI as well as its own Copilot applications for Windows. Between 2020 and 2023, Microsoft’s disclosed annual emissions increased by around 40%, from the equivalent of 12.2 million tonnes of CO₂ to 17.1 million tonnes.

These figures include not only direct emissions but also indirect emissions, such as those caused by generating the electricity used to run data centres and those that result from the use of the company’s products. (These three categories of emissions are referred to as Scope 1, 2 and 3 emissions, respectively.)

Meta too is sinking huge resources into AI. In 2023, the company disclosed is Scope 3 emissions had increased by over 65% in just two years, from the equivalent of 5 million tonnes of CO₂ in 2020 to 8.4 million tonnes in 2022.

Google’s emissions were almost 50% higher in 2023 than in 2019. The tech giant’s 2024 environmental report notes that planned emissions reductions will be difficult “due to increasing energy demands from the greater intensity of AI compute”.

Water

Data centres generate a lot of heat, and consume large amounts of water to cool their servers. According to a 2021 study, data centres in the United States use about 7,100 litres of water for each megawatt-hour of energy they consume.

Google’s US data centres alone consumed an estimated 12.7 billion litres of fresh water in 2021.

In regions where climate change is increasing water stress, the water use of data centres is becoming a particular concern. The recent drought in California, where many tech companies are based, has led companies including Google, Amazon and Meta to start “water positive” initiatives.

These big tech firms have announced commitments to replenish more water than they consume by 2030. Their plans include projects such as designing ecologically resilient watershed landscapes and improving community water conservation to improve water security.

Climate risk

Where data centres are located in or near cities, they may also end up competing with people for resources in times of scarcity. Extreme heat events are one example.

Globally, the total number of days above 50°C has increased in each decade since 1980. July 2023 was the hottest month ever recorded.

Extreme heat translates to health impacts on local populations. A Lancet 2022 study found that even a 1°C increase in temperature is positively associated with increased mortality and morbidity.

On days of extreme heat, air conditioning can save lives. Data centres also like to keep cool, so their power use will spike with the temperature, raising the risk of blackouts and instability in electricity grids.

What’s next?

So what now? As we have seen, tech companies are increasingly aware of the issue. How is that translating into action?

When we surveyed Australian sustainability professionals in July 2023, we found only 6% believed data centre operators provided detailed sustainability data.

Earlier this year we surveyed IT managers in Australia and New Zealand to ask what they thought about how AI applications are driving increased energy use. We found 72% are already adopting or piloting AI technologies.

More than two-thirds (68%) said they were concerned about increased energy consumption for AI needs. However, there is also significant uncertainty about the size of the increase.

Many IT managers also lack the necessary skills to adequately address these sustainability impacts, regardless of corporate sustainability commitments. Education and training for IT managers to understand and address the sustainability impacts of AI is urgently required.

Gordon Noble, Research Director, Institute for Sustainable Futures, University of Technology Sydney and Fiona Berry, Research Principal, Institute for Sustainable Futures, University of Technology Sydney

This article is republished from The Conversation under a Creative Commons license. Read the original article.

The Conversation

Photo by Growtika 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