The Dark Side of Renewable Energies: Electric Vehicles and Lithium Mining in Chile (2024)

by Adriana Daroqui, Sustainability Strategies ’21 alum

The Dark Side of Renewable Energies: Electric Vehicles and Lithium Mining in Chile (1)

The use of renewable energies for decarbonization replicates the extractives model of fossil fuel production. Both practices destroy the environment, harms plants and animals, and displaces indigenous communities from their ancestral lands in the name of market and economic interests. As a result, climate change mitigation based on the transition to renewable energy has become complicit in condoning ecological degradation and perpetuating violent conflicts and unjust patterns of colonialism, racism, patriarchy, militarization, and structural violence (Sovacool, 2021).

Electric vehicles, which do not emit carbon dioxide, have been presented by European and American governments as an example of their commitment to environmental protection. However, these vehicles require large amounts of lithium for their batteries. As a result, mining companies and electric car manufacturers promote lithium extraction as environmentally benign and climate-friendly, and therefore a gift for the countries that extract it (MacMillen et al., 2021). However, lithium mining destroys the delicate balance in places where plants and animals survive under extreme conditions.

Due to the adoption of carbon mitigation policies, lithium demand for the manufacture of rechargeable batteries has doubled in less than ten years (Jerez et al., 2021 and is projected to increase fivefold by 2025 (Kramarz, 2021). However, electric vehicle production, like oil industry, has disposed indigenous communities of their land and ways of living. Moreover, it does not address traffic concerns or eliminate or reduce single car use in cities.

For decades, two big companies, Albemarle and SQM (Sociedad Quimica y Minera de Chile), have been extracting lithium from the Atacama Salt Flats in northern Chile, one of the world’s largest lithium deposits. The Atacama Salt Flats are located in one of the driest places on Earth, where animals, plants, and indigenous communities have lived for centuries and have learned how to survive despite these harsh conditions. For example, parinas, native flamingos, filter and feed on microorganisms from the salty water, and the carbo tree that grows in the desert by drawing water from deep in the ground. The local indigenous communities cultivate quinoa, squash, and corn; raise livestock such as guanacos, llamas, and alpacas; and sustainably collect parina eggs as a food source.

In the Atacama Salt Flats, lithium is obtained from brine, which is extracted from underground and exposed to the sun to evaporate the water. The salt flat itself is a complex aquifer system, where waters of different salinity and quality interact (Jerez et al., 2021).

Since the ‘90s, the demand for lithium has increased due to its use in batteries, and companies have been permitted to drain more than 63 billion liters—16.6 billion gallons—of brine per year (Boddenberg, 2020). Brine has been extracted at a faster rate that it can sustainably be replenished, drying up several rivers that locals had used and changing the overall salinity of the salt flats. Moreover, gallons of water have evaporated in one of the world’s driest deserts, increasing the frequency of extreme weather events and land surface temperatures in the region.

In 2016, the mining company Albemarle signed an agreement on Cooperation, Sustainability, and Mutual Benefit with the 18 indigenous communities that make up the Council of Atacameños Peoples. The company committed to paying to the Council the equivalent of 3.5% of lithium carbonate and potassium chloride sales taken from the salt flats. The agreement is being held up by the mining company and the Chilean government as a leading international example for other extractive projects, adhering to the highest available standards. However, the agreement is just an example of the commodification of nature, which considers only the economic value of a resource but neglects the spiritual, cosmological, social, and ecological value of, in this case, the entire salt flats.

The environmental changes caused by lithium extraction threaten the livelihoods of the local people. They have been forced to abandon their crops and cattle, and they have been coerced into partaking in the industrial capitalist system. They have been forced to migrate to cities for better opportunities or to seek a job at a mining company for a wage that allows them to buy food and water. This is the same food and water that the companies they work for destroy through their extractivist activities.

The social consequences for indigenous people are similarly severe. For example, internal conflicts have arisen among community members regarding the agreements with the mining company, which has clearly failed to adequately adhere to the rights of indigenous communities and has violated the principle of free, prior, and informed consent regarding territorial projects (MacMillen et al., 2021). In addition, as people have lost their connection to the land, problems like alcoholism and drug addiction have appeared.

The use of renewable energy technologies is not the solution to climate change. Renewable energies simply hide harm, abuses, and human rights violations. These threats are inherent in the extractivist model and increase inequality and climate injustice. We need policies that protect extractive areas, respect indigenous peoples’ rights, and promote systemic change that makes it possible to reduce extractivism. Until that happens, new energy sources will continue to be discovered, and the ecosystems in which they are found will continue to be destroyed.

Adriana Daroqui, is a 2021 alum of the MS of the Environmental Policy and Sustainability Management program at the Milano School of Policy, Management, and the Environment, The New School, New York. She can be reached at daroa105@newschool.edu.

Sources and References

Boddenberg, Sophia. 2020. Deutsche Welle. Chile: Lithium exploitation leaves residents without water. https://www.dw.com/es/chile-explotación-de-litio-deja-sin-agua-a-pobladores/a-52165228

Jerez, Barbara; Caceres, Ingrid; Torres, Robinson. 2021. Political Geography. Lithium extractivism and water injustices in the Salar de Atacama, Chile: The colonial shadow of green electromobility.

Kramarz, Teresa; Park, Susan; Johnson, Craig. 2021. Energy Research & Social Science. Governing the dark side of renewable energy: A typology of global displacements.

Macmillen Voskobiynik, Daniel; Andreucci Diego. 2021. Greening extractivism: Environmental discourses and resource governance in the ‘Lithium Triangle’. Nature and Space. 1-23.

Sovacool, Benjamin K. 2021. Who are the victims of low-carbon transitions? Towards a political ecology of climate change mitigation. Energy Research & Social Science 73 (2021) 101916

The Dark Side of Renewable Energies: Electric Vehicles and Lithium Mining in Chile (2024)

FAQs

The Dark Side of Renewable Energies: Electric Vehicles and Lithium Mining in Chile? ›

Increased renewable energy production requires a massive increase in lithium production. Lithium extraction in South America's Atacama Desert is highly water-intensive and threatens local water supplies. Locals fear environmental damage and economic exploitation from foreign mining companies.

What are the negative effects of lithium mining in Chile? ›

The environmental fallout from lithium mining is clear and far-reaching. Massive quantities of fresh water, classified as a precious resource in these arid regions, are diverted for lithium mining operations, fueling the salt flats brine. This leaves local communities and wildlife parched.

What are the dark side of lithium mining? ›

Though emissions deriving from mining these two elements are lower than those deriving from fossil fuels production, the extraction methods for lithium and cobalt can be very energy intensive – leading to air and water pollution, land degradation, and potential for groundwater contamination.

Is lithium mining for electric cars bad? ›

Environmental impacts of lithium mining and batteries

However, the process to mine, refine and assemble EVs, particularly their batteries, is environmentally damaging. According to a report by MIT's Climate Lab, one ton of mined lithium emits nearly 15 tons of CO2.

Is the mining of lithium bad for the environment? ›

Every tonne of mined lithium results in 15 tonnes of CO2 emissions in the environment. In addition, it is estimated that about 500,000 litres of water are needed to mine approximately 2.2 million litres per tonne of lithium. This substantially impacts the environment, leading to water scarcity in already arid regions.

Is lithium mining worse than fossil fuels? ›

“[It's] not like CO2 comes out of the lithium, but it does take energy to mine things — today many of those systems involve emitting CO2.” Lithium-ion battery mining and production were determined to be worse for the climate than the production of fossil fuel vehicle batteries in an article from The Wall Street Journal ...

What is the problem with mining in Chile? ›

Mining has caused water scarcity in other Chilean regions as well, leaving bed rivers dry. In the case of Los Bronces, pollution impacts on glaciers could undermine water security in Chile's capital, Santiago.

How much earth is moved to make a Tesla battery? ›

To manufacture each EV battery, you must process 25,000 pounds of brine for the lithium 30,000 pounds of ore for the cobalt 5,000 pounds of ore for the nickel, 25,000 pounds of ore for copper Diging up 500,000 pounds of the earth's crust For just - one - battery.

Are electric cars bad for the environment? ›

Myth #1. Electric vehicles are worse for the climate than gasoline cars because of power plant emissions. FACT: Electric vehicles typically have a smaller carbon footprint than gasoline cars, even when accounting for the electricity used for charging. Electric vehicles (EVs) have no tailpipe emissions.

Where does Tesla get lithium? ›

At the end of 2021, Tesla inked a lithium supply deal with top lithium producer Ganfeng Lithium (OTC Pink:GNENF,SZSE:002460). Under the agreement, the Chinese company began providing products to Tesla for three years starting in 2022.

How bad are Tesla batteries for the environment? ›

EV lithium-ion battery packs are made with materials that are expensive, and in some cases, toxic and flammable. Primary materials include lithium, nickel, cobalt, and copper. The mining of these rare materials, their manufacturing processes, and their eventual disposal all pose very real environmental challenges.

How bad are lithium car batteries for the environment? ›

Lithium-ion batteries contain metals such as cobalt, nickel, and manganese, which are toxic and can contaminate water supplies and ecosystems if they leach out of landfills. Additionally, fires in landfills or battery-recycling facilities have been attributed to inappropriate disposal of lithium-ion batteries.

Will we run out of lithium for electric cars? ›

U.S. geological survey the world is getting better at mining battery metals including lithium. As of 2021, it was estimated that the world had 88 million tonnes of lithium resources.

What is the dark side of lithium mining? ›

Furthermore, lithium mining requires a lot of water. To extract one ton of lithium requires about 500,000 liters of water, and can result in the poisoning of reservoirs and related health problems. What to do, then? To begin with, we should invest in alternative solutions to lithium batteries.

What is the problem with electric car batteries? ›

Electric car batteries are complex components containing many rare earth elements (REE), like lithium, nickel, cobalt, and graphite. As their name suggests, these materials are difficult to find and extract, requiring intensive mining and even some polluting processes to separate them from the soil.

What are the dangers of electric cars? ›

Exposed electrical components, wires, and high-voltage batteries may cause high-voltage shock hazards. If an emergency such as a fire occurs, contact 911 immediately. Physical damage to the vehicle or high-voltage battery may result in immediate or delayed release of toxic and/or flammable gases and fire.

What are the disadvantages of lithium mines? ›

Furthermore, lithium mining requires a lot of water. To extract one ton of lithium requires about 500,000 liters of water, and can result in the poisoning of reservoirs and related health problems.

What are the problems with lithium mining in South America? ›

Sustainability challenges around lithium mining

The extraction of lithium requires using very high volumes of water, around 2.2 million litres per ton of lithium. This has led to serious issues around water stress – a situation where a region's water resources are not enough to meet its needs.

Why does Chile have so much lithium? ›

Where the lithium comes from and what it is processed into matters a great deal. Australia produces lithium from hard rock mining, whereas Chile produces lithium from brine deposits, which are underground lakes of saline groundwater located under salt flats. Brine operation in Atacama.

What is the mining conflict in Chile? ›

In Chile, the majority of mineral mines are in conflict, with indigenous peoples in many cases, who are left to risk their wellbeing to protest against the lithium and copper mining in order to protect their lands and the environment.

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