conflict minerals

By Elsa Dominish, Nick Florin, and Rachael Wakefield-Rann - Earthworks, April 27, 2021

This research investigates the current status and future potential of strategies to reduce demand for new mining, particularly for lithium-ion battery metals for electric vehicles. This study is focused on four metals which are important to lithium-ion batteries: cobalt, lithium, nickel and copper.

In order to meet the goals of the Paris Climate agreement and prevent the worst effects of catastrophic climate change, it will be essential for economies to swiftly transition to renewable energy and transport systems. At present, the technologies required to produce, store and utilize renewable energy require a significant amount of materials that are found predominantly in environmentally sensitive and often economically marginalized regions of the world. As demand for these materials increase, the pressures on these regions are likely to be amplified. For renewable energy to be socially and ecologically sustainable, industry and government should develop and support responsible management strategies that reduce the adverse impacts along the material and technology supply chains.

There are a range of strategies to minimize the need for new mining for lithium-ion batteries for electric vehicles, including extending product life through improved design and refurbishment for reuse, and recovering metals through recycling at end of life. For example, we found that recycling has the potential to reduce primary demand compared to total demand in 2040, by approximately 25% for lithium, 35% for cobalt and nickel and 55% for copper, based on projected demand. This creates an opportunity to significantly reduce the demand for new mining. However, in the context of growing demand for electric vehicles, it will also be important that other demand reduction strategies with lower overall material and energy costs are pursued in tandem with recycling, including policy to dis-incentivize private car ownership and make forms of active and public transport more accessible. While the potential for these strategies to reduce demand is currently not well understood; this report provides insights into the relative merits, viability, and implications of these demand reduction strategies, and offers recommendations for key areas of policy action.

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By Benjamin Hitchcock Auciello, et. al. - Earthworks, March 31, 2021

It is critical that the clean energy economy not repeat the mistakes of the dirty fossil fuel economy that it is seeking to replace. The pivot from internal combustion engines towards electric vehicles provides an unprecedented opportunity to develop a shared commitment to responsible mineral sourcing. We can accelerate the renewable energy transition and drive improvements in the social and environmental performance of the mining industry by reducing overall demand for new minerals, increasing mineral recycling and reuse, and ensuring that mining only takes place if it meets high environmental, human rights and social standards.

This report is designed to inform downstream battery metal users of key environmental, social, and governance issues associated with the extraction and processing of the three battery metals of principal concern for the development of electric vehicles and low-carbon energy infrastructure—lithium, cobalt and nickel—and to offer guidance on responsible minerals sourcing practices. This report reflects and summarizes some of the key concerns of communities impacted by current and proposed mineral extraction in hotspots around the world: Argentina, Chile and the United States for lithium, Papua New Guinea, Indonesia and Russia for nickel, and the Democratic Republic of Congo for cobalt.

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By Ruth Santiago, Sabrina Fernandes, Julie Michelle Klinger, Thea Riofrancos, and Daniel Aldana Cohen - NACLA Report, March 26, 2021

By Andy Whitmore - War on Want, March 2021

There is an urgent need to deal with the potential widespread destruction and human rights abuses that could be unleashed by the extraction of transition minerals: the materials needed at high volumes for the production of renewable energy technologies. Although it is crucial to tackle the climate crisis, and rapidly transition away from fossil fuels, this transition cannot be achieved by expanding our reliance on other materials. The voices arguing for ‘digging our way out of the climate crisis’, particularly those that make up the global mining industry, are powerful but self-serving and must be rejected. We need carefully planned, lowcarbon and non-resource-intensive solutions for people and planet.

Academics, communities and organisations have labelled this new mining frontier, ‘green extractivism’: the idea that human rights and ecosystems can be sacrificed to mining in the name of “solving” climate change, while at the same time mining companies profit from an unjust, arbitrary and volatile transition. There are multiple environmental, social, governance and human rights concerns associated with this expansion, and threats to communities on the frontlines of conflicts arising from mining for transition minerals are set to increase in the future. However, these threats are happening now. From the deserts of Argentina to the forests of West Papua, impacted communities are resisting the rise of ‘green extractivism’ everywhere it is occurring. They embody the many ways we need to transform our energy-intense societies to ones based on democratic and fair access to the essential elements for a dignified life. We must act in solidarity with impacted communities across the globe.

This report includes in-depth studies written by frontline organisations in Indonesia and Philippines directly resisting nickel mining in both countries respectively. These exclusive case studies highlight the threats, potential impacts and worrying trends associated with nickel mining and illustrate, in detail, the landscape for mining expansion in the region.

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By Jonathan Neale - Climate and Capitalism, February 11, 2021

I have spent the last year working on a book called Fight the Fire: Green New Deals and Global Climate Jobs. Most of it is about both the politics and the engineering of any possible transition that can avert catastrophic climate breakdown. One thing I had to think about long and hard was lithium and car batteries.

I often hear people say that we can’t cover the world with electric vehicles, because there simply is not enough lithium for batteries. In any case, they add, lithium production is toxic, and the only supplies are in the Global South. Moreover, so the story goes, there are not enough rare earth metals for wind turbines and all the other hardware we will need for renewable energy.

People often smile after they say those things, which is hard for me to understand, because it means eight billion people will go to hell.

So I went and found out about lithium batteries and the uses of rare earth. What I found out is that the transition will be possible, but neither the politics nor the engineering is simple. This article explains why. I start by describing the situation simply, and then add in some of the complexity.

Lithium is a metal used in almost all electric vehicle batteries today. About half of global production of lithium currently goes to electric vehicles. And in future we will need to increase the production of electric vehicles from hundreds or thousands to hundreds of millions. That will require vast amounts of lithium.

There are three ways to mine lithium. It can be extracted from rock. It can be extracted from the brine that is left over when sea water passes through a desalination plant. Or it can be extracted from those brine deposits which are particularly rich in lithium. These brine deposits are the common way of mining lithium currently, because it is by far the cheapest. Most of the known deposits of lithium rich brine are in the arid highlands where Bolivia, Chile and Argentina come together.

Lithium mining is well established in Chile and Argentina. In both countries the local indigenous people have organized against the mining, but so far been unable to stop it. The mining is toxic, because large amounts of acid are used in the processing. But the mining also uses large amounts of water in places that already has little enough moisture. The result is that ancestral homelands become unlivable.

Bolivia may have even richer deposits of lithium than Argentina and Chile, but mining has not begun there. The Bolivian government had been led by the indigenous socialist Evo Morales from 2006 to 2019. Morales had been propelled to power by a mass movement committed to taking back control of Bolivia’s water, gas and oil resources from multinational corporations. Morales was unable to nationalize the corporations, but he did insist on the government getting a much larger share of the oil and gas revenue.[1]

His government planned to go even further with lithium. Morales wanted to mine the lithium in Bolivia, but he wanted to build factories alongside the mines to make batteries. In a world increasingly hungry for batteries, that could have turned Bolivia into an industrial nation, not just a place to exploit resources.

The Morales government, however, was unable to raise the necessary investment funds. Global capital, Tesla, the big banks and the World Bank had no intention of supporting such a project. And if they had, they would not have done so in conjunction with a socialist like Morales. Then, in 2019, a coup led by Bolivian capitalists, and supported by the United States, removed Morales. Widespread popular unrest forced a new election in October. Morales’ party, the Movement for Socialism won, though Morales himself was out of the running. It is unclear what will happen to the lithium.

That’s one level of complexity. The local indigenous people did not want the lithium mined. The socialist government did not want extractavism, but they did want industrial development.

Those are not the only choices.

For one thing, there are other, more expensive ways of mining lithium. It can be mined from hard rock in China or the United States. More important, batteries do not have to be made out of lithium. Cars had used batteries for almost a century before Sony developed a commercial lithium-ion battery in 1991. Engineers in many universities are experimenting with a range of other materials for building batteries. But even without looking to the future, it would be possible to build batteries in the ways they used to be built. Indeed, in January 2020, the US Geological Service listed the metals that could be substituted for lithium in battery anodes as calcium, magnesium, mercury and zinc.[2]

The reason all manufacturers currently use lithium is that it provides a lighter battery that lasts longer. That gives the car greater range without recharging, and it make possible a much lighter car. In other words, lithium batteries are cheaper.

By Jonathan Neale - The Ecologist, January 2021

As I write, we are in the midst of a global pandemic which reveals every kind of cruelty and inequality. Worse is to come. We are entering into a global recession and mass unemployment. Looming beyond that is the threat of runaway climate change. But this is also a moment in history. It may be possible, now, to halt the onward rush of climate breakdown.
A door is opening. In every country in the world, a great debate is beginning. The question is, what can be done about the economy? In every country, one answer will be that the government must give vast sums of money to banks, hedge funds, oil companies, airlines, corporations and the rich. And that the government must pay for all this by cutting hospitals, education, welfare and pensions.

The other answer will be that we must spend vast sums of money to create new jobs, build a proper healthcare system, meet human needs and stop climate change.

Who do we rescue? Their banks and their corporations, or our people and our planet?

The answer in favour of helping people, not the rich, is called a “Green New Deal”. The idea of a Green New Deal has been around for a decade in many countries. But the decisive moment came in 2017, when Alexandria Ocasio-Cortez and Bernie Sanders in the United States decided to back a Green New Deal. That resonated widely. As we entered the pandemic, that idea was already there.

But those three little words, Green New Deal, can mean everything, anything and nothing. We want one particular kind of deal. The words need to mean something real and particular if the deal is to make a difference.

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By James Gignac - Union of Concerned Scientists, October 30, 2020

This is one of four blogs in a series examining current challenges and opportunities for recycling of clean energy technologies. Please see the introductory post, as well as other entries on wind turbines and energy storage batteries. Special thanks to Jessica Garcia, UCS’s Summer 2020 Midwest Clean Energy Policy Fellow, for research support and co-authoring these posts.

Growth of solar panels and their lifespans

Solar energy is converted into electricity primarily with photovoltaic (PV) panels (there is another technology, called concentrating solar power, or CSP, but it is less commonly used and not addressed here). PV panels are comprised of individuals cells linked together, forming various shapes and sizes based on the needs of the system. The panels themselves are made with semiconductor materials—generally silicon, but sometimes various rare metals—and generally covered in glass.

The cost of PV panels has declined dramatically in recent years while their efficiency has gone up. These trends are continuing, leading to rapid growth of the solar industry globally. Solar panels on average last 25-30 years (and maybe even longer); thus, solar installations occurring today can be expected to remain productive until the middle of this century.

The reliability and longevity of new panels means that the volume requiring recycling or disposal is currently low, except for very early generations of PV panels and small numbers that may get broken during the installation process or damaged in storms.

However, options for recycling and disposal need to be addressed as PV production continues to ramp up. And while the larger recycling need may not come for another decade, infrastructure and policy should be put in place now to accommodate future needs.

By James Gignac - Union of Concerned Scientists, October 30, 2020

This is one of four blogs in a series examining current challenges and opportunities for recycling of clean energy technologies. Please see the introductory post, as well as other entries on solar panels and wind turbines. Special thanks to Jessica Garcia, UCS’s Summer 2020 Midwest Clean Energy Policy Fellow, for research support and co-authoring these posts.

Lithium-ion batteries dominate the energy storage scene

Lithium-ion (Li-ion) batteries might be known to everyday consumers as the rechargeable batteries which power our cellphones, cameras, and even toothbrushes. Apart from storing energy for small devices, Li-ion batteries are now being used at a much larger scale to store energy for electric vehicles (EVs) and as storage for renewable energy systems like wind and especially solar.

Bloomberg New Energy Finance reports that prices for battery packs used in electric vehicles and energy storage systems have fallen 87% from 2010-2019, much faster than expected. As the prices have fallen, battery usage has risen.

So have the conversations on what can and should be done with Li-ion batteries when they reach the end-of-use stage. Here we will focus on recycling of lithium-ion batteries from energy storage systems, but for more information on increasing possibilities for second-life uses of EV batteries, see our former colleague Hanjiro Ambrose’s blog and podcast episode.

As a key energy storage technology, batteries are important for incorporating higher amounts of wind and solar power on the grid.

By staff - UAW Research Department, January 2020

The American automotive industry is constantly evolving and, throughout the union’s history, the United Auto Workers (UAW) has fought to ensure industry changes result in quality jobs that benefit workers and the economy.

The auto industry is facing a new shift in technology with the proliferation of electric vehicles (EVs). This shift is an opportunity to re-invest in U.S. manufacturing. But this opportunity will be lost if EVs or their components are imported or made by low-road suppliers who underpay workers. In order to preserve American jobs and work standards, what is needed is a proactive industrial policy that creates high-quality manufacturing jobs making EVs and their components.

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The LEAP - YouTube Video, October 21, 2019