Connect with us

Published

on

In the rich cultures of Indigenous Peoples across the Great Lakes basin, the turtle holds a place of profound significance. For the Haudenosaunee and Anishinaabe peoples, the turtle is far more than an animal; it is a sacred being, a symbol of creation, and an influential teacher of balance, patience, and interconnectedness. Yet, as climate change accelerates, turtles in the Great Lakes region face increasing threats, bringing their survival—and the health of our shared environment—into sharp focus.

Turtles of the Great Lakes Region: Sacred Beings and Environmental Indicators

 The Great Lakes basin is home to several species of turtles, including the painted turtle, snapping turtle, Blanding’s turtle, wood turtle, spotted turtle, musk turtle, and map turtle. These species play a vital role in maintaining ecosystem health, functioning as scavengers, seed dispersers, and contributors to aquatic food webs. However, they are increasingly at risk from habitat loss, pollution, invasive species, and the profound effects of climate change.

Turtles are sensitive to environmental changes, making them key indicators of ecological health. Rising temperatures, erratic weather patterns, and altered water levels disrupt their nesting cycles, hatchling success rates, and sex ratios. Since the nest’s temperature determines a turtle’s sex during incubation, warming climates produce disproportionately more females, threatening population stability. These disruptions are not just a concern for turtles; they provide a stark warning about the broader impacts of climate change on the ecosystems we depend on.

Creation Stories and Sacred Roles: Turtle as Teacher

The Haudenosaunee and Anishinaabe creation stories place the turtle at the center of the land’s formation. For the Haudenosaunee, the turtle’s back became the foundation of Turtle Island when Sky Woman fell from the Sky World, assisted by water animals like the muskrat. Similarly, in the Anishinaabe tradition, Nanabozho orchestrated the creation of land on a turtle’s back with the help of the muskrat’s selfless sacrifice. These stories reflect profound ecological truths: cooperation, resilience, and the interdependence of all life.

Turtle Island

Turtle Island (AI-generated image)

Turtles are sacred to both cultures. The Haudenosaunee see the 13 large scales on a turtle’s shell as a representation of the 13 lunar cycles, emphasizing time’s sacred rhythm and the wisdom of patience. The Anishinaabe view the turtle’s shell as a symbol of protection and interconnectedness, embodying the Earth. As clans, turtles often hold leadership roles, guiding communities with steadiness and wisdom.

Climate Change Through an Indigenous Lens

For the Haudenosaunee and Anishinaabe, the natural world is a network of relationships in which every being has a role and agency. Turtles, as sacred beings and environmental sentinels, teach us about the health of our ecosystems and the urgent need for action. The Haudenosaunee’s Seven Generations principle implores us to consider the long-term consequences of our actions, particularly as we witness climate change’s accelerating impacts.

The Anishinaabe teaching of Mino-Bimaadiziwin (“the Good Life”) emphasizes harmony and reciprocity with nature. This includes understanding that the turtle’s survival is not separate from our own—it reflects the broader state of the natural world. As caretakers, our shared duty is to protect turtles, their habitats, and the delicate ecosystems they sustain.

A Call to Action: Honouring the Turtle and Addressing Climate Change

Protecting turtles in the Great Lakes region requires immediate, collaborative action. This includes safeguarding wetlands, preventing pollution, addressing invasive species, and mitigating climate change’s effects. Indigenous Traditional Ecological Knowledge (TEK) offers powerful guidance for these efforts, grounded in a worldview that sees humans as interconnected with all beings rather than dominant over them.

Practical steps include supporting conservation programs that protect turtle habitats and ensure sustainable ecosystems. For example, Indigenous-led initiatives emphasize the importance of wetlands—key nesting and feeding areas for turtles—which also help buffer against climate change by sequestering carbon and reducing flooding. Incorporating Indigenous teachings into broader environmental strategies can amplify their effectiveness and foster a deeper respect for the natural world.

Learning from the Turtle: A Sacred Responsibility

The turtle teaches us patience, resilience, and the interconnectedness of life. As climate change threatens their survival, their plight reminds us of the urgent need for collective action to protect the Earth. By embracing the wisdom of the Haudenosaunee, Anishinaabe, and other Indigenous Peoples, we can learn to walk more gently on Turtle Island, honouring our responsibility to the land and its sacred beings.

Humanity must steadfastly carry this responsibility, much like the turtle carries the world. By doing so, we ensure the survival of these ancient beings and the health of the ecosystems that sustain us all. Together, we can create a future that reflects the turtle’s balance, perseverance, and wisdom—an enduring symbol of our sacred connection to Mother Earth.

By Rye Karonhiowanen Barberstock

(Header Image Credit: Matt Bango, Licensed under Unsplash+)

The post The Sacred Turtle: Teachings on Our Shared Responsibility to Mother Earth appeared first on Indigenous Climate Hub.

The Sacred Turtle: Teachings on Our Shared Responsibility to Mother Earth

Continue Reading

Climate Change

Efforts to green lithium extraction face scrutiny over water use 

Published

on

Mining companies are showcasing new technologies which they say could extract more lithium – a key ingredient for electric vehicle (EV) batteries – from South America’s vast, dry salt flats with lower environmental impacts.

But environmentalists question whether the expensive technology is ready to be rolled out at scale, while scientists warn it could worsen the depletion of scarce freshwater resources in the region and say more research is needed.

The “lithium triangle” – an area spanning Argentina, Bolivia and Chile – holds more than half of the world’s known lithium reserves. Here, lithium is found in salty brine beneath the region’s salt flats, which are among some of the driest places on Earth.

Lithium mining in the region has soared, driven by booming demand to manufacture batteries for EVs and large-scale energy storage.

Mining companies drill into the flats and pump the mineral-rich brine to the surface, where it is left under the sun in giant evaporation pools for 18 months until the lithium is concentrated enough to be extracted.

The technique is relatively cheap but requires vast amounts of land and water. More than 90% of the brine’s original water content is lost to evaporation and freshwater is needed at different stages of the process.

One study suggested that the Atacama Salt Flat in Chile is sinking by up to 2 centimetres a year because lithium-rich brine is being pumped at a faster rate than aquifers are being recharged.

    Lithium extraction in the region has led to repeated conflicts with local communities, who fear the impact of the industry on local water supplies and the region’s fragile ecosystem.

    The lithium industry’s answer is direct lithium extraction (DLE), a group of technologies that selectively extracts the silvery metal from brine without the need for vast open-air evaporation ponds. DLE, it argues, can reduce both land and water use.

    Direct lithium extraction investment is growing

    The technology is gaining considerable attention from mining companies, investors and governments as a way to reduce the industry’s environmental impacts while recovering more lithium from brine.

    DLE investment is expected to grow at twice the pace of the lithium market at large, according to research firm IDTechX.

    There are around a dozen DLE projects at different stages of development across South America. The Chilean government has made it a central pillar of its latest National Lithium Strategy, mandating its use in new mining projects.

    Last year, French company Eramet opened Centenario Ratones in northern Argentina, the first plant in the world to attempt to extract lithium solely using DLE.

    Eramet’s lithium extraction plant is widely seen as a major test of the technology. “Everyone is on the edge of their seats to see how this progresses,” said Federico Gay, a lithium analyst at Benchmark Mineral Intelligence. “If they prove to be successful, I’m sure more capital will venture into the DLE space,” he said.

    More than 70 different technologies are classified as DLE. Brine is still extracted from the salt flats but is separated from the lithium using chemical compounds or sieve-like membranes before being reinjected underground.

    DLE techniques have been used commercially since 1996, but only as part of a hybrid model still involving evaporation pools. Of the four plants in production making partial use of DLE, one is in Argentina and three are in China.

    Reduced environmental footprint

    New-generation DLE technologies have been hailed as “potentially game-changing” for addressing some of the issues of traditional brine extraction.

    “DLE could potentially have a transformative impact on lithium production,” the International Lithium Association found in a recent report on the technology.

    Firstly, there is no need for evaporation pools – some of which cover an area equivalent to the size of 3,000 football pitches.

    “The land impact is minimal, compared to evaporation where it’s huge,” said Gay.

    A drone view shows Eramet’s lithium production plant at Salar Centenario in Salta, Argentina, July 4, 2024. (Photo: REUTERS/Matias Baglietto)

    A drone view shows Eramet’s lithium production plant at Salar Centenario in Salta, Argentina, July 4, 2024. (Photo: REUTERS/Matias Baglietto)

    The process is also significantly quicker and increases lithium recovery. Roughly half of the lithium is lost during evaporation, whereas DLE can recover more than 90% of the metal in the brine.

    In addition, the brine can be reinjected into the salt flats, although this is a complicated process that needs to be carefully handled to avoid damaging their hydrological balance.

    However, Gay said the commissioning of a DLE plant is currently several times more expensive than a traditional lithium brine extraction plant.

    “In theory it works, but in practice we only have a few examples,” Gay said. “Most of these companies are promising to break the cost curve and ramp up indefinitely. I think in the next two years it’s time to actually fulfill some of those promises.”

    Freshwater concerns

    However, concerns over the use of freshwater persist.

    Although DLE doesn’t require the evaporation of brine water, it often needs more freshwater to clean or cool equipment.

    A 2023 study published in the journal Nature reviewed 57 articles on DLE that analysed freshwater consumption. A quarter of the articles reported significantly higher use of freshwater than conventional lithium brine mining – more than 10 times higher in some cases.

    “These volumes of freshwater are not available in the vicinity of [salt flats] and would even pose problems around less-arid geothermal resources,” the study found.

    The company tracking energy transition minerals back to the mines

    Dan Corkran, a hydrologist at the University of Massachusetts, recently published research showing that the pumping of freshwater from the salt flats had a much higher impact on local wetland ecosystems than the pumping of salty brine. “The two cannot be considered equivalent in a water footprint calculation,” he said, explaining that doing so would “obscure the true impact” of lithium extraction.

    Newer DLE processes are “claiming to require little-to-no freshwater”, he added, but the impact of these technologies is yet to be thoroughly analysed.

    Dried-up rivers

    Last week, Indigenous communities from across South America held a summit to discuss their concerns over ongoing lithium extraction.

    The meeting, organised by the Andean Wetlands Alliance, coincided with the 14th International Lithium Seminar, which brought together industry players and politicians from Argentina and beyond.

    Indigenous representatives visited the nearby Hombre Muerto Salt Flat, which has borne the brunt of nearly three decades of lithium extraction. Today, a lithium plant there uses a hybrid approach including DLE and evaporation pools.

    Local people say the river “dried up” in the years after the mine opened. Corkran’s study linked a 90% reduction in wetland vegetation to the lithium’s plant freshwater extraction.

    Pia Marchegiani, of Argentine environmental NGO FARN, said that while DLE is being promoted by companies as a “better” technique for extraction, freshwater use remained unclear. “There are many open questions,” she said.

    AI and satellite data help researchers map world’s transition minerals rush

    Stronger regulations

    Analysts speaking to Climate Home News have also questioned the commercial readiness of the technology.

    Eramet was forced to downgrade its production projections at its DLE plant earlier this year, blaming the late commissioning of a crucial component.

    Climate Home News asked Eramet for the water footprint of its DLE plant and whether its calculations excluded brine, but it did not respond.

    For Eduardo Gigante, an Argentina-based lithium consultant, DLE is a “very promising technology”. But beyond the hype, it is not yet ready for large-scale deployment, he said.

    Strong regulations are needed to ensure that the environmental impact of the lithium rush is taken seriously, Gigante added.

    In Argentina alone, there are currently 38 proposals for new lithium mines. At least two-thirds are expected to use DLE. “If you extract a lot of water without control, this is a problem,” said Gigante. “You need strong regulations, a strong government in order to control this.”

    The post Efforts to green lithium extraction face scrutiny over water use  appeared first on Climate Home News.

    Efforts to green lithium extraction face scrutiny over water use 

    Continue Reading

    Climate Change

    Maryland’s Conowingo Dam Settlement Reasserts State’s Clean Water Act Authority but Revives Dredging Debate

    Published

    on

    The new agreement commits $340 million in environmental investments tied to the Conowingo Dam’s long-term operation, setting an example of successful citizen advocacy.

    Maryland this month finalized a $340 million deal with Constellation Energy to relicense the Conowingo Dam in Cecil County, ending years of litigation and regulatory uncertainty. The agreement restores the state’s authority to enforce water quality standards under the Clean Water Act and sets a possible precedent for dozens of hydroelectric relicensing cases nationwide expected in coming years.

    Maryland’s Conowingo Dam Settlement Reasserts State’s Clean Water Act Authority but Revives Dredging Debate

    Continue Reading

    Climate Change

    A Michigan Town Hopes to Stop a Data Center With a 2026 Ballot Initiative

    Published

    on

    Local officials see millions of dollars in tax revenue, but more than 950 residents who signed ballot petitions fear endless noise, pollution and higher electric rates.

    This is the second of three articles about Michigan communities organizing to stop the construction of energy-intensive computing facilities.

    A Michigan Town Hopes to Stop a Data Center With a 2026 Ballot Initiative

    Continue Reading

    Trending

    Copyright © 2022 BreakingClimateChange.com