Letter #12 How we manufacture silicon: computers’ crucial ingredient not found in nature

Letter #12 How we manufacture silicon: computers’ crucial ingredient not found in nature

In her “Letter to Greta Thunberg” series, Katie Singer explains the real ecological impacts of so many modern technologies on which the hope for a bright green (tech) future is based on.

A letter to Greta Thunberg
by Katie Singer


Dear Greta,

Could we discuss silicon, that substance on which our digital world depends? [1] Silicon is a semiconductor, and tiny electronic switches called transistors are made from it. Like brain cells, transistors control the flow of information in a computer’s integrated circuits. Transistors store memory, amplify sound, transmit and receive data, run apps and much, much more.

One smartphone (call it a luxury, hand-held computer with portals to the Internet) can hold more than four billion transistors on a few tiny silicon chips, each about the size of a fingernail.

Computer chips are made from electronic-grade silicon, which can have no more than one impure atom per billion. But pure silicon is not found in nature. Producing it requires a series of steps that guzzle electricity [2] and generate greenhouse gases (GHGs) and toxic waste.

Silicon’s story is not easy to swallow. Still, if we truly aim to decrease our degradation of the Earth and GHG emissions, we cannot ignore it.

Step One  

Silicon production starts with collecting and washing quartz rock (not sand), a pure carbon (usually coal, charcoal, petroleum coke, [3] or metallurgical coke) and a slow-burning wood. These three substances are transported to a facility with a submerged-arc furnace.[4]

Note that transporting the raw materials necessary for silicon production—between multiple countries, via cargo ships, trucks, trains and airplanes—uses oil and generates greenhouse gases. [5]

Step Two

Kept at 3000F (1649C) for years at a time, a submerged-arc furnace or smelter “reduces” the silicon from the quartz. During this white-hot chemical reaction, gases escape upward from the furnace. Metallurgical-grade silicon settles to the bottom, 97-99% pure—not nearly pure enough for electronics. [6]

If power to a silicon smelter is interrupted for too long, the smelter’s pot could be damaged. [7] Since solar and wind power is intermittent, they cannot power a smelter.

Typically, Step Two takes up to six metric tons of raw materials to make one metric ton (t) of silicon. A typical furnace consumes about 15 megawatt hours of electricity per metric ton (MWh/t) [8] of silicon produced, plus four MWh/t for ventilation and dust collection; and it generates tremendous amounts of CO2.[9]

Manufacturing silicon also generates toxic emissions. In 2016, New York State’s Department of Environmental Conservation issued a permit to Globe Metallurgical Inc. to release, per year: up to 250 tons of carbon monoxide, 10 tons of formaldehyde, 10 tons of hydrogen chloride, 10 tons of lead, 75,000 tons of oxides of nitrogen, 75,000 tons of particulates, 10 tons of polycyclic aromatic hydrocarbons, 40 tons of sulfur dioxide and up to 7 tons of sulfuric acid mist. [10] To clarify, this is the permittable amount of toxic waste allowed annually for one New York State metallurgical-grade silicon smelter. Hazardous waste generated by manufacturing silicon in China likely has significantly less (if any) regulatory limits.

Step Three

Step Two’s metallurgical-grade silicon is crushed and mixed with hydrogen chloride (HCL) to synthesize trichlorosilane (TCS) gas. Once purified, the TCS is sent with pure hydrogen to a bell jar reactor, where slender filaments of pure silicon have been pre-heated to about 2012F (1100C). In a vapor deposition process that takes several days, silicon gas atoms collect on glowing strands to form large polysilicon rods—kind of like growing rock candy. If power is lost during this process, fires and explosions can occur. A polysilicon plant therefore depends on more than one source of electricity—i.e. two coal-fired power plants, or a combination of coal, nuclear and hydro power. [11]

A large, modern polysilicon plant can require up to 400 megawatts of continuous power to produce up to 20,000 tons of polysilicon per year (~175 MW/hours per ton of polysilicon). [12] Per ton, this is more than ten times the energy used in Step Two—and older plants are usually less efficient. A single plant can draw as much power as an entire city of 300,000 homes.

Once cooled, the polysilicon rods are removed from the reactor, then sawed into sections or fractured into chunks. The polysilicon is etched with nitric acid and hydrofluoric acid [13] to remove surface contamination. Then, it’s bagged in a chemically clean room and shipped to a crystal grower.

Step Four

Step Three’s polysilicon chunks are re-melted to a liquid, then pulled into a single crystal of silicon to create a cylindrical ingot. Cooled, the ingot’s (contaminated) crown and tail are cut off. Making ingots often requires more electricity than smelting. [14]The silicon ingot’s remaining portion is sent to a slicer.

Step Five

Like a loaf of bread, the silicon ingot is sliced into wafers. More than 50 percent of the ingot is lost in this process. It becomes sawdust, which cannot be recycled. [15]

Step Six

Layer by layer, the silicon will be “doped” with tiny amounts of boron, gallium, phosphorus or arsenic to control its electrical properties. Dozens of layers are produced during hundreds of steps to turn each electronic-grade wafer into microprocessors, again using a great deal of energy and toxic chemicals.

Questions for a world out of balance 

In 2013, manufacturers began producing more transistors than farmers grow grains of wheat or rice. [16] Now, manufacturers make 1000 times more transistors than farmers grow grains of wheat and rice combined. [17]

After I learned what it takes to produce silicon, I could hardly talk for a month. Because I depend on a computer and Internet access, I depend on silicon—and the energy-intensive, toxic waste-emitting, greenhouse gas-emitting steps required to manufacture it.

Of course, silicon is just one substance necessary for every computer. As I report in letter #3 [18], one smartphone holds more than 1000 substances, each with their own energy-intensive, GHG-emitting, toxic waste-emitting supply chain. [19] One electric vehicle can have 50-100 computers. [20] When a computer’s microprocessors are no longer useful, they cannot be recycled; they become electronic waste. [21]

Solar panels also depend on pure silicon. At the end of their lifecycle, solar panels are also hazardous waste. (In another letter, I will outline other ecological impacts of manufacturing, operating and disposing of solar PV systems.)

I’d certainly welcome solutions to silicon’s ecological impacts. Given the magnitude of the issues, I’d mistrust quick fixes. Our first step, I figure, is to ask questions. What’s it like to live near a silicon smelter? How many silicon smelters operate on our planet, and where are they? If we recognize that silicon production generates greenhouse gases and toxic emissions, can we rightly call any product that uses it “renewable,” “zero-emitting,” “green” or “carbon-neutral?”

Where do petroleum coke, other pure carbons and the wood used to smelt quartz and produce silicon come from? How/could we limit production of silicon?

How does our species’ population affect silicon’s production and consumption? I’ve just learned that if we reduced fertility rates to an average of one child per woman (voluntarily, not through coercion of any kind), the human population would start to approach two billion within four generations.[22] (At this point, we’re nearing eight billion people.) To reduce our digital footprint, should we have less children? Would we have less children?

What would our world look like if farmers grew more wheat and rice than manufacturers make transistors? Instead of a laptop, could we issue every student a raised bed with nutrient-dense soil, insulating covers and a manual for growing vegetables?

What questions do you have about silicon?

Yours,
Katie Singer

Katie Singer’s writing about nature and technology is available at www.OurWeb.tech/letters/. Her most recent book is An Electronic Silent Spring.

REFERENCES

  1. Without industrial process designer Tom Troszak’s 2019 photo-essay, which explains how silicon is manufactured for solar panels (and electronic-grade silicon), I could not have written this letter. Troszak, Thomas A., “Why Do We Burn Coal and Trees for Solar Panels?” https://www.researchgate.net/publication/335083312_Why_do_we_burn_coal_and_trees_to_make_solar_panels
    “Planet of the Humans,” Jeff Gibbs and Michael Moore’s documentary, released on YouTube in 2020, also shows how silicon is manufactured for solar panels. https://planetofthehumans.com/
  2. Schwarzburger, Heiko, “The trouble with silicon,” https://www.pv-magazine.com/magazine-archive/the-trouble-with-silicon_10001055/ September 15, 2010.
  3. Stockman, Lorne, “Petroleum Coke: The Coal Hiding in the Tar Sands,” Oil Change International, January,2013; www.priceofoil.org
  4. Silicon processing: from quartz to crystalline silicon solar cells; https://www.researchgate.net/publication/265000429_Silicon_processing_from_quartz_to_crystalline_silicon_solar_cells; Daqo new Energy: The Lowest-Cost Producers Will Survive (NYSE:DQ), 2017, https://seekingalpha.com/article/4104631-daqo-new-energy-lowest-cost-producers-will-survive.
  5. “Greenhouse gas emissions from global shipping, 2013-2015; https://theicct.org/sites/default/files/publications/Global-shipping-GHG-emissions-2013-2015_ICCT-Report_17102017_vF.pdf
  6. Chalamala, B., “Manufacturing of Silicon Materials for Microelectronics and PV (No. SAND2018-1390PE), Sandia National Lab, NM, 2018. https://www.osti.gov/servlets/purl/1497235; Polysilicon Production: Siemens Process (Sept. 2020); Kato, Kazuhiko, et. al., “Energy Pay-back Time and Life-cycle CO2 Emission of Residential PV Power System with Silicon PV Module,” Progress in Photovoltaics: Research and Applications, 6(2), 105-115, John Wiley & Sons, 1998; https://onlinelibrary.wiley.com/doi/abs/10.1002/(SICI)1099-159X(199803/04)6:2%3C105::AID-PIP212%3D3.0.CO;2-C
  7. Schwarzburger, 2010; Troszak, “The effect of embodied energy on the energy payback time (EPBT) for solar PV;” https://www.researchgate.net/publication/335612277_The_effect_of_embodied_energy_on_the_energy_payback_time_EPBT_for_solar_PV/figures
  8. Kramer, Becky, “Northeast Washington silicon smelter plans raise concerns,” The Spokesman-Review, 11.1.17.
  9. Thorsil Metallurgical Grade Silicon Plan; Helguvik, Reykjanes municipality (Reykjanesbaer), Reykjanes peninsula, Iceland, Environmental Impact Assessment, February, 2015.
  10. New York State Dept. of Environmental Conservation – Facility DEC ID: 9291100078 PERMIT Issued to: Global Metallurgical Inc.; http://www.dec.ny.gov/dardata/boss/afs/permits/929110007800009_r3.pdf
  11. “Polysilicon Market Analysis: Why China is beginning to dominate the polysilicon market,” 2020, https://www.bernreuter.com/polysilicon/market analysis/; also, Bruns, Adam, 2009.
  12. Bruns, Adam, “Wacker Completes Dynamic Trio of Billion-Dollar Projects in Tennessee: ‘Project Bond’ cements the state’s clean energy leadership,” 2009, www.siteselection.com.
  13. Schwartzburger, 2010.
  14. Dale, M. and S.M. Benson, “Energy balance of the global photovoltaic (PV) industry-is the PV industry a net electricity producer?” Environmental Science and Technology, 47(7), 3482-3489, 2013.
  15. The Society of Chemical Engineers of Japan (ed.), “Production of silicon wafers and environmental problems,” Introduction to VLSI Process Engineering, Chapman & Hall, 1993.
  16. Hayes, Brian, “The Memristor,” American Scientist, 2011.
  17. https://marginalrevolution.com/marginalrevolution/2019/01/claims-about-transistors.html
  18. www.DearGreta.com/letter-3/
  19. Needhidasan, S., M. Samuel and R. Chidambaram, “Electronic waste: an emerging threat to the environment of urban India,” J. of env. health science and engineering, 2014, 12(1), 36.
  20. www.DearGreta.com/letter-5/
  21. Needhidasan, S., 2014.
  22. Hickey, Colin, et al. “Population Engineering and the Fight against Climate Change.” Social Theory and Practice, vol. 42, no. 4, 2016, pp. 845–870., www.jstor.org/stable/24870306.
Recognizing the true guardians of the forest: Q&A with David Kaimowitz

Recognizing the true guardians of the forest: Q&A with David Kaimowitz

Indigenous peoples worldwide are the victims of the largest genocide in human history, which is ongoing. Wherever indigenous cultures have not been completely destroyed or assimilated, they stand as relentless defenders of the landbases and natural communities which are there ancestral homes. They also provide living proof that humans as a species are not inherently destructive, but a societal structure based on large scale monoculture, endless energy consumption, accumulation of wealth and power for a few elites, human supremacy and patriarchy (i.e. civilization) is. DGR stands in strong solidarity with indigenous peoples.


This article originally appeared on Mongabay.

by  on 14 April 2021

The Environmental Impacts of “Green” Technology

The Environmental Impacts of “Green” Technology

Happening today:
Bright Green Lies the documentary premieres Earth Day – April 22nd — as a live-streaming event and Q&A with director Julia Barnes, and authors Derrick Jensen, Lierre Keith, and Max Wilbert. Tickets are available at https://www.brightgreenlies.com/


This article originally appeared on Counterpunch.

By Julia Barnes

Solar panels, wind turbines, and electric cars have long been touted as solutions to the climate crisis.

The “green” image attached to these technologies masks a dark reality; they are adding to the problem of environmental destruction, failing to reduce CO2 emissions, and accelerating the mass extinction of life on the planet.

In my upcoming film Bright Green Lies, based on the book by the same name, I take a critical look at the industries that claim to be about saving the planet.

60% of the European Union’s “renewable” energy comes from biomass. Forests across North America are being clear cut and shipped across the Atlantic to be burned for electricity. Biomass is inaccurately counted as carbon neutral, when in reality emissions from biomass plants can exceed that of coal fired power plants. The burning of wood in Europe is subsidized to the tune of nearly 7 billion euros per year.

Dams have been called “methane bombs” because they produce large amounts of methane. They also harm rivers by increasing the water temperature and blocking the passage of fish who swim upriver to spawn.

So-called “renewables” like solar panels and wind turbines are made of finite materials that require mining. The materials that go into creating “green” tech range from copper and steel to concrete, sand, and rare earths. In Baotou, China, a dystopian lake is filled with toxic waste from rare earths mining. Fossil fuels are burned throughout the production process.

Wind turbines in the US kill over 1 million birds per year. Bats who fly near the turbines can die of barotrauma – their lungs exploding from the pressure differential caused by the blades.

A proposed lithium mine in northern Nevada currently threatens 5000 acres of old growth sagebrush habitat. The industry calls this a “green” mine because the lithium will be used in electric car batteries. I doubt the golden eagles, sage grouse, pronghorn antelope, rabbitbrush, or Crosby’s buckwheat who call the area home would agree. The mine would burn around 11,300 gallons of diesel fuel and produce thousands of tons of sulfuric acid per day.

There are plans to mine the deep sea to extract the materials for electric car batteries and “renewable” energy storage. It is predicted that each mining vessel would process 2-6 million cubic feet of sediment per day. The remaining slurry would be dumped back into the ocean where it would smother and burry organisms, toxify the food web, and potentially disrupt the plankton who produce two thirds of earth’s oxygen.

These are just a few examples of the environmental harms associated with “green” technology. To scale up the production of these technologies would require increased mining, habitat destruction, global shipping, industrial manufacturing, and the production of more toxic waste. “Renewables” are predicted to be the number one cause of habitat destruction by mid-century.

So-called green technologies both emerge from and support the industrial system that is destroying life on the planet.

We have been told a story that there is a baseline demand for energy, and that if this demand could be met with so-called renewables, fossil fuel use would diminish. This story runs contrary to the entire history of energy usage. Historically, as new sources of energy have been added to the grid, old sources have remained constant or grown. Instead of displacing each other, each additional source stacks on top of the rest, and industrial civilization becomes more energy intensive.

We see the same pattern today, in the real world, with the addition of so-called renewables. On a global scale, “green” technologies do not even deliver on their most basic promise of reducing fossil fuel consumption.

All the mining, pollution and habitat destruction simply adds to the harm being done to the planet. Nothing about the production of “green” energy helps the natural world.

The push for “green” energy solves for the wrong variable. It takes a high-energy, high-consumption industrial civilization as a given, when this is precisely what needs to change if we are to live sustainably on this planet.

The real solutions are obvious; stop the industries that are causing the harm and allow life to come back. Fossil fuels need our opposition. So do lithium mines, rare earths mines, copper mines, iron mines, and industrial wind and solar facilities. Fracking should not be tolerated. Neither should biomass plants or hydroelectric dams.

Forests, prairies, mangroves, seagrasses, and fish have all been decimated. They could all sequester large amounts of carbon if we allowed them to recover.

While making my first documentary, Sea of Life, I visited the village of Cabo Pulmo. The ocean there had once been heavily overfished, but within ten years of creating a marine protected area, the biomass – the mass of life in the ocean – increased by over 450%. When I arrived, 20 years after the marine reserve was created, I found an ocean that was teeming with fish.

Life wants to live. If we can stop the harm, nature will do the repair work that’s necessary. But there are limits to how far things can be pushed, and we are running out of time. Up to 200 species are going extinct every day. The destruction of the world is accelerating, thanks in part, to the very industries being touted as “green”. With life on the planet at stake, we cannot afford to waste time on false solutions.

Bright Green Lies the book is available now.

Julia Barnes is the director of the award-winning documentary Sea of Life.

‘The People Have Spoken’: Left-Wing, Indigenous-Led Party Vows to Stop Greenland Uranium Mining Project After Historic Win

‘The People Have Spoken’: Left-Wing, Indigenous-Led Party Vows to Stop Greenland Uranium Mining Project After Historic Win

While this is a great temporary success, we have to keep in mind that Greenland is a vast island and very scarcely populated. The pressure by multinational corporations to exploit the countries resources will likely increase in the near future.

This article originally appeared on CommonDreams.

Featured image: Members of the Inuit Ataqatigiit (AI) Party wave party flags as they celebrate following the exit polls results of the legislative election in Nuuk, on April 6, 2021. Greenland went to the polls on April 6 after an election campaign focused on a disputed mining project in the autonomous Danish territory, as the Arctic island confronts the impact of global warming. (Photo: Emil Helms / Ritzau Scanpix / AFP)


“Greenlanders are sending a strong message that for them it’s not worth sacrificing the environment to achieve independence and economic development.”

Jon Queally, staff writer

Members of the left-wing and Indigenous-led Inuit Ataqatigiit (AI) party in Greenland celebrated late Tuesday after winning a majority of parliamentary seats in national elections and vowed to use their new power to block controversial rare-earth mining projects in the country.

Poll results released Wednesday morning showed that the Inuit Ataqatigiit won 36.6 percent of the vote compared to the 29 percent garnered by the center-left Siumut party, which has dominated domestic politics since Greenland won autonomy from Denmark in 1979. If those margins hold, according to the Associated Press, AI is expected to grab 12 out of the 31 seats in the Inatsisartut, the local parliament, a 50 percent increase from the 8 seats it currently holds.

As Agence France-Presse reports:

The dividing line between the two parties was whether to authorise a controversial giant rare earth and uranium mining project, which is currently the subject of public hearings.

The Kuannersuit deposit, in the island’s south, is considered one of the world’s richest in uranium and rare earth minerals—a group of 17 metals used as components in everything from smartphones to electric cars and weapons.

IA has called for a moratorium on uranium mining, which would effectively put a halt to the project.

According to Reuters, the results cast “doubt on the mining complex at Kvanefjeld in the south of the Arctic island and sends a strong signal to international mining companies wanting to exploit Greenland’s vast untapped mineral resources.”

“The people have spoken,” IA leader Mute Egede told local news oultet DR when asked about Kvanefjeld. “It won’t happen.”

“We must listen to the voters who are worried,” he said. “We say no to uranium mining.”

In other comments following the party’s victory, Egede said, “There are two issues that have been important in this election campaign: people’s living conditions is one. And then there is our health and the environment.”

“It’s not that Greenlanders don’t want mining, but they don’t want dirty mining,” Mered added. “Greenlanders are sending a strong message that for them it’s not worth sacrificing the environment to achieve independence and economic development.”

The Long Shadow of the Tar Sands: Lithium Mining and Tar Sands Sulfur [Dispatches from Thacker Pass]

The Long Shadow of the Tar Sands: Lithium Mining and Tar Sands Sulfur [Dispatches from Thacker Pass]

In this article, Max Wilbert talks about his experience in fighting tar sand mining in Washington and Utah, and how this is related to the current campaign against lithium mining in Nevada. “I think it’s wrong to blow up a mountain for tar sands. I think it’s wrong to blow up a mountain for lithium, too. I guess I’m just stubborn like that.”


by Max Wilbert

It’s often said that solar panels, wind turbines, and the lithium-ion batteries that store their energy and power electric vehicles will save the planet.

What most people don’t know is that producing lithium has direct links to the Alberta Tar Sands (also known as the Athabasca tar sands), the largest and most destructive industrial project on the planet.

This is a personal issue for me. I have fought the tar sands for over a decade. Starting in 2010, I began campaigning for the city of Bellingham, Washington to forbid a spur of the Trans Mountain pipeline which carries “dilbit” (diluted bitumen, AKA unrefined tar sands to which gas has been added so it’ll flow easily through a pipeline) under the city.

After months of campaigning, Bellingham became the first city in the nation to unanimously pass a resolution declaring tar sands fuel to be harmful. But despite overwhelming public opposition, the city’s attorneys said they couldn’t prevent the pipeline from operating using the law. What that says about the state of democracy is worth a whole different article. And perhaps a revolution. But I digress.

After my years in Bellingham, I lived in Salt Lake City, where I took part in the campaign to protect the Tavaputs Plateau in northeastern Utah from tar sands strip mining. As part of that work, I took part in public meetings, family camp-outs on the site, disruptive protests, and several direct actions against the U.S. Oil Sands Corporation.

For the last three months, I’ve been in Nevada, on Northern Paiute territory, holding down a protest camp established on the proposed site of an open-pit lithium mine. I’m an equal opportunity land defender. I think it’s wrong to blow up a mountain for tar sands. I think it’s wrong to blow up a mountain for lithium, too. I guess I’m just stubborn like that.

But as I’ve implied, these projects are directly related. It turns out, the proposed mine at Thacker Pass would likely rely directly on materials sourced from the Alberta tar sands as the key chemical ingredient in their production process.

According to the Final Environmental Impact Statement, the proposed Thacker Pass mine would produce 5,800 tons of sulfuric acid per day for use in refining lithium. That would require importing 1,896 tons of sulfur per day. That’s nearly 700,000 tons per year, roughly equivalent to the mass of two Empire State Buildings annually. This would be brought in to Thacker Pass on dozens of (diesel-fueled) semi-trucks each carrying 3,800 gallons of molten sulfur.

Most sulfur comes from oil and gas refineries, where it’s a byproduct of producing low-sulfur fuels to meet air-quality regulations. And here’s the punchline: according the U.S. Geological Survey, tar sands contain 11 times as much sulfur as conventional heavy crude oil. There are literal “mountains” of sulfur piling up in Alberta, and at other refineries which process tar sands fuel.

That includes the refineries in Anacortes, Washington, which refines the “dilbit” from the pipelines running underneath Bellingham, my old home. These two refineries are major sources of sulfur for the entire western United States, shipping out millions of tons annually.

According to Lithium Americas Corp. Vice President of Global Engineering, the proposed lithium mine at Thacker Pass would purchase sulfur on the bulk commodity market, and it would be delivered by rail to Winnemucca (60 miles south), then brought by truck to Thacker Pass. That bulk commodity market sources nearly 100% of its elemental sulfur from oil and gas refineries.

And so we come full circle: the lithium destined for lithium-ion batteries that will be extracted from Thacker Pass, will almost certainly be directly connected to the total destruction of Alberta’s boreal forest, the poisoning of the water across thousands of square miles, the epidemic of cancers and rare diseases in that region, the wave of missing and murdered indigenous women in Alberta, and all the other harms that come from the tar sands. And, lest we forget, the tar sands are a major contributor to global warming. Canadian greenhouse gas emissions have skyrocketed over recent decades, as tar sands oil production has expanded.

Revenue from sales of sulfur is not unimportant to the economics of tar sands oil extraction. One report from 2018 found that as much as half a million barrels per day of tar sands product would be economical to extract if legal levels of sulfur allowed in bunker fuel were lowered. Another report found that “developing a plan for storing, selling or disposing of the sulphur will help to ensure the profitability of oil sands operations.”

All this points to a relatively simple conclusion: extraction of lithium at Thacker Pass would directly support the economics of extracting additional sulfur-rich crude oil and bitumen at the tar sands, further incentivizing the destruction of the planet.

Why do we defend the land here at Thacker Pass? There are so many reasons. It is important habitat. It is sacred ancestral land for our Northern Paiute friends from the nearby Fort McDermitt tribe. It is beautiful. But we also stand to protect this place because we stand for the truth. Lithium mining, and by extension, much of the so-called “green economy” that is being developed is not separate from fossil fuels. It is firmly dependent on fossil fuels.

Besides the sulfur, this project would burn tens of thousands of gallons of diesel fuel per day — operating heavy equipment made of steel that was produced with metallurgical coke, a type of coal. That same steel makes up the frame of the electric cars, too. The roads into the mine site would likely be made of asphalt concrete. You know what another name for asphalt is? Bitumen. AKA tar sands.

The idea of a “green” electric car is a fantasy. The sooner we face that reality, the sooner we can put a stop to false greenwashing projects like the Lithium Americas/Lithium Nevada Thacker Pass mine. The sooner we face reality, the sooner we can recognize that to shut down the tar sands, we actually have to shut down the tar sands, not just blow up other mountains elsewhere and hope that leads to the end of the tar sands.

Do not fool yourself. This is not some great green transition. It is more of the same. More destroyed land, more poisoned water, more decimated wildlife.

It’s beautiful here at Thacker Pass. Yesterday morning, I woke before 5am to visit the Greater sage-grouse “lek” — mating ground — on top of the mountain directly above the proposed mine. I watched the male grouse strut and dance, and thought about the new USGS report showing that grouse populations have declined by 80% since 1965, and nearly 40% since 2002. That comes on top of previous population collapses. The population was 16 million a century ago. Now, it’s closer to 200,000. That’s a 99% decline. This region, the northwestern Great Basin, has been particularly hard hit.

It is possible for humans to live sustainably. Our ancestors managed it for hundreds of thousands of years. Is it possible to live sustainably, and drive cars? No, I don’t believe it is. You may not like it, but there’s a thing about the natural laws of the universe: they don’t give a damn if you like them or not. Gravity exists. Ecological constraints exist. If you ignore them, you will pay the price.

We cannot afford to ignore the truth, and because of this, we must stop the Thacker Pass mine — and the tar sands. We need your help. If you can contribute to this campaign, or to the broader transformation of society that is needed, reach out to us at https://ProtectThackerPass.org. Construction might begin very soon. If that happens, Thacker Pass will die. The water will be poisoned. And the truth will be crushed along with the sagebrush, under the hard metal treads of the bulldozers. Stand with us.

#ProtectThackerPass #BrightGreenLies #TarSands #Greenwashing #Lithium #EVs #EnergyStorage #KeepItInTheGround

Photo: Large sulfur pile — byproduct of tar sands oil refining. By Leonard G., Creative Commons ShareAlike 1.0.

The Environmental Impacts of “Green” Technology

Happening Today: Live Streaming Event “Ending The Greenwashing”

Join Us Today

Derrick Jensen, Lierre Keith, Max Wilbert, and grassroots organizers from around the world for a special 3-hour live streaming event, Ending The Greenwashing, starting at 1pm Pacific Time and hosted by Deep Green Resistance.

This event will explore in detail the topic of greenwashing.

Around the planet, mining companies, energy producers, automakers, engineering firms, and investors are gearing up for a new industrial revolution: the “green economy” transition. Trillions of dollars in public subsidy are being redirected to support this. Climate change is a crisis, and fossil fuels must be stopped. But will this project actually help the planet?

The evidence, to be frank, isn’t good.

From north to south, east to west, “renewable” energy operations are bulldozing rare ecosystems, trampling community rights, and looking far too similar to fossil fuels for comfort. The promise of a “green” industrial economy is rapidly being revealed as an illusion meant to generate profits and prevent us from recognizing the truth: that we need fundamental, revolutionary changes in our economy and culture — not just superficial changes to our energy sources.

This event will introduce you to on-the-ground campaigns being waged around the planet, introduce various strategies for effective organizing, and rebut false solutions through readings of the new book Bright Green Lies: How the Environmental Movement Lost Its Way and What We Can Do About It, and discuss philosophy of resistance. There will be opportunities to ask questions and participate in dialogue during the event.

The mainstream environmental movement is funded mainly by foundations which don’t want revolutionary change.

Radical organizations like Deep Green Resistance therefore rely on individual donors to support activism around the world, which is why Ending The Greenwashing is also a fundraiser. We’re trying to raise funds to support global community organizing via our chapters, fund mutual aid and direct action campaigns, and make our core outreach and organizational work possible.

Whether or not you are in a financial position to donate, we hope you will join us today on April 17th for this event!

Facebook event: https://www.facebook.com/events/5248823575192797/

Event will be live streamed on this page: https://givebutter.com/endthegreenwash