It’s 2050, and global warming is in full effect. Because of regional climate disruptions, crops that once were abundant no longer grow in their original habitat. Drought has demolished Africa’s once-fertile farmlands, and monsoons have drowned East Asia’s rice supply. The world’s agricultural infrastructure is in complete disarray.The possibility of such a catastrophe, however remote, has led the Global Crop Diversity Trust, a small nonprofit based in Rome, to create the Svalbard International Seed Vault. This new air-locked structure, soon to be dug into an arctic mountainside on Norway’s Spitsbergen Island, ensures the long-term survival of the world’s agriculture by preserving one of its most basic resources: seeds. “The vault is a global insurance policy,” says Cary Fowler, the executive secretary of the Trust, the organization spearheading the comprehensive archive. Funded with $3 million from the Norwegian government, the vault will safeguard seeds of every known crop variety from nearly every country on earth, and will begin accepting samples in fall 2007.Protected from any mischief by an intricate system of motion detectors and alarms, the vault is also secured by the island’s permafrost, which, despite global warming, should guarantee that the temperature inside the vault rises no higher than 27 degrees Fahrenheit in the event of refrigeration equipment malfunction. “It is, in a sense, made to run by itself,” says Fowler. Currently under construction, the vault will resemble a library, with shelves of sealed boxes that each hold up to 400 different samples, preserving them for hundreds of years.”Crop diversity is the most precious resource on earth,” says Fowler. “It allows us to fashion efficient and sustainable responses to food insecurity, climate change, and constraints in water and energy supplies.” He explains that extinction is a process, not an event. “It doesn’t take place when the last individual dies, but when the species loses the ability to evolve. We must realize that our major crops can become extinct even if there are presently billions of that species. They are domesticated plants. Their evolution is in our hands.” And soon, safe in a vault.FOUND Dutch explorer Willem Barents discovered Spitsbergen, the largest island in the Svalbard Archipelago, while searching for the Northern Sea Route in 1596.LEARN MORE croptrust.org
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The evidence points to a crisis in teaching, yet Gen Z is still choosing to show up in the classroom
Despite the burnout, they seek connection and purpose as educators.
Anyone interested in becoming a teacher in today’s environment does so under a warning label. With lower pay, political pressure, community standards, lack of necessary funding, and general safety concerns, this profession is in crisis. Seasoned educators are completely burned out.
As more teachers share on social media that they’re tired of the system and ready to leave education, something unexpected is also happening. Despite every statistic adding up to a profession better avoided, Gen Z graduates are choosing to teach anyway.

Young educator in the classroom.
Photo credit CanvaA generation shaped by isolation, Gen Z chooses connection
Teach for America (TFA), one of the larger teacher pipelines in the country, brings in thousands of new educators every year. In 2025, over 2,300 college graduates from 600 colleges and universities have joined up.
In January 2026, The Guardian wrote that despite a nationwide decline in teachers, a significant number of Gen Z graduates are entering the classroom. A generation that faced the social isolation created during COVID lockdown looks to make connections and give back. “Teaching is a job where they can find that,” said Whitney Petersmetyer, TFA’s chief growth and program officer. She believes the generation is “craving human connection and experiences that feel real.”
Petersmetyer adds that Gen Z is, “responding to the opportunity for purpose and responsibility at a time where many entry jobs feel uncertain or disconnected from impact.”

What’s your purpose?
Photo credit CanvaGen Z craves purpose and meaning
In a global 2024 survey by Deloitte, a massive sample of 23,000 respondents from 44 countries was surveyed on financial insecurity, rapidly evolving technology, and career choices. Results showed 9 out of 10 Gen Zers believed purpose was the key to job satisfaction. Almost 50% of job opportunities were rejected because they failed to meet their personal values.
Gen Z actively wants work that has a positive social impact, acknowledges environmental values, and follows ethical concerns. In 2023, Forbes reported that Gen Z is fueled by purpose perhaps more than any previous generation. They prioritize values over salary.
Many Gen Zers have been rethinking what work should really provide. They want income, yet personal fulfillment and a life balance remain crucial. Business Insider reports this generation is less willing to accept work that feels transactional or leaves them feeling empty.

The many roles of a teacher.
Photo credit CanvaThe challenges haven’t gone away
Teaching is still one of the most challenging jobs in the country. The work is complex, emotional, and highly demanding. A 2024 report in EdWeek found that teachers earn lower pay and experience more stress than workers in other professions. A 2024 report by the U.S. Bureau of Labor Statistics showed the teaching profession in decline due to low wages and reduced freedom in the classroom.
In2024, the RAND Corporation also conducted a survey that found 53% of teachers report being burned out. Over half of the educators faced frequent job-related stress and declining well-being.

A Gen Z teacher.
Photo credit CanvaChoosing a profession that others are leaving
Gen Z knows the challenges. They’ve seen the uncomfortable headlines. Despite everything, they’re still coming to teach.
“My philosophy is focused much more on being a good human at this age,” said 23-year-old educator Van De Vijver. The third-grade math teacher in Fairfax, Virginia, added, “If they leave my classroom as someone who is willing to help others, who keeps an open mind and is caring, as long as they also don’t get zeros on everything, then I feel like I have done a good job teaching.”
Whether these incoming, motivated, young teachers decide to stay will likely depend on their personal motivations and the experiences they encounter as educators. Despite burnout in a strained profession, they’re choosing a job that offers them connection and meaning. Even if the path ahead is uncertain, Gen Z brings new energy and ideas into the classroom.
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America’s next big critical minerals source could be coal mine pollution – if we can agree on who owns it
Mine waste could power clean energy.
Across Appalachia, rust-colored water seeps from abandoned coal mines, staining rocks orange and coating stream beds with metals. These acidic discharges, known as acid mine drainage, are among the region’s most persistent environmental problems. They disrupt aquatic life, corrode pipes and can contaminate drinking water for decades.
However, hidden in that orange drainage are valuable metals known as rare earth elements that are vital for many technologies the U.S. relies on, including smartphones, wind turbines and military jets. In fact, studies have found that the concentrations of rare earths in acid mine waste can be comparable to the amount in ores mined to extract rare earths.
Scientists estimate that more than 13,700 miles (22,000 kilometers) of U.S. streams, predominantly in Pennsylvania and West Virginia, are contaminated with acid mine discharge.
We and our colleagues at West Virginia University have been working on ways to turn the acid waste in those bright orange creeks into a reliable domestic source for rare earths while also cleaning the water.
Experiments show extraction can work. If states can also sort out who owns that mine waste, the environmental cost of mining might help power a clean energy future.
Rare earths face a supply chain risk
Rare earth elements are a group of 17 metals, also classified as critical minerals, that are considered vital to the nation’s economy or security.
Despite their name, rare earth elements are not all that rare. They occur in many places around the planet, but in small quantities mixed with other minerals, which makes them costly and complex to separate and refine.

MP Materials’ Mountain Pass Rare Earth Mine and Processing Facility, in California near the Nevada border, is one of the few rare earth mines in the U.S. Tmy350/Wikimedia Commons, CC BY-SA China controls about 70% of global rare earth production and nearly all refining capacity. This near monopoly gives the Chinese government the power to influence prices, export policies and access to rare earth elements. China has used that power in trade disputes as recently as 2025.
The United States, which currently imports about 80% of the rare earth elements it uses, sees China’s control over these critical minerals as a risk and has made locating domestic sources a national priority.

The U.S. Geological Survey has been mapping locations for potential rare earth mining, shown in pink. But it takes years to explore a locations and then get a mine up and running. USGS Although the U.S. Geological Survey has been mapping potential locations for extracting rare earth elements, getting from exploration to production takes years. That’s why unconventional sources, like extracting rare earth elements from acid mine waste, are drawing interest.
Turning a mine waste problem into a solution
Acid mine drainage forms when sulfide minerals, such as pyrite, are exposed to air during mining. This creates sulfuric acid, which then dissolves heavy metals such as copper, lead and mercury from surrounding rock. The metals end up in groundwater and creeks, where iron in the mix gives the water an orange color.
Expensive treatment systems can neutralize the acid, with the dissolved metals settling into an orange sludge in treatment ponds.
For decades, that sludge was treated as hazardous waste and hauled to landfills. But scientists at West Virginia University and the National Energy Technology Laboratory have found that it contains concentrations of rare earth elements comparable to those found in mined ores. These elements are also easier to extract from acid mine waste because the acidic water has already released them from the surrounding rock.

Acid mine drainage flowing into Decker’s Creek in Morgantown, West Virginia, in 2024. Helene Nguemgaing Experiments have shown how the metals can be extracted: Researchers collected sludge, separated out rare earth elements using water-safe chemistry, and then returned the cleaner water to nearby streams.
It is like mining without digging, turning something harmful into a useful resource. If scaled up, this process could lower cleanup costs, create local jobs and strengthen America’s supply of materials needed for renewable energy and high-tech manufacturing.
But there’s a problem: Who owns the recovered minerals?
The ownership question
Traditional mining law covers minerals underground, not those extracted from water naturally running off abandoned mine sites.
Nonprofit watershed groups that treat mine waste to clean up the water often receive public funding meant solely for environmental cleanup. If these groups start selling recovered rare earth elements, they could generate revenue for more stream cleanup projects, but they might also risk violating grant terms or nonprofit rules.
To better understand the policy challenges, we surveyed mine water treatment operators across Pennsylvania and West Virginia. The majority of treatment systems were under landowner agreements in which the operators had no permanent property rights. Most operators said “ownership uncertainty” was one of the biggest barriers to investment in the recovery of rare earth elements, projects that can cost millions of dollars.
Not surprisingly, water treatment operators who owned the land where treatment was taking place were much more likely to be interested in rare earth element extraction.

Map of acid mine drainage sites in West Virginia. Created by Helene Nguemgaing, based on data from West Virginia Department of Environmental Protection, West Virginia Office of GIS Coordination, and U.S. Geological Survey West Virginia took steps in 2022 to boost rare earth recovery, innovation and cleanup of acid mine drainage. A new law gives ownership of recovered rare earth elements to whoever extracts them. So far, the law has not been applied to large-scale projects.
Across the border, Pennsylvania’s Environmental Good Samaritan Act protects volunteers who treat mine water from liability but says nothing about ownership.

Map of acid mine drainage sites in Pennsylvania. Created by Helene Nguemgaing, based on data from Pennsylvania Spatial Data Access This difference matters. Clear rules like West Virginia’s provide greater certainty, while the lack of guidance in Pennsylvania can leave companies and nonprofits hesitant about undertaking expensive recovery projects. Among the treatment operators we surveyed, interest in rare earth element extraction was twice as high in West Virginia than in Pennsylvania.
The economics of waste to value
Recovering rare earth elements from mine water won’t replace conventional mining. The quantities available at drainage sites are far smaller than those produced by large mines, even though the concentration can be just as high, and the technology to extract them from mine waste is still developing.
Still, the use of mine waste offers a promising way to supplement the supply of rare earth elements with a domestic source and help offset environmental costs while cleaning up polluted streams.
Early studies suggest that recovering rare earth elements using technologies being developed today could be profitable, particularly when the projects also recover additional critical materials, such as cobalt and manganese, which are used in industrial processes and batteries. Extraction methods are improving, too, making the process safer, cleaner and cheaper.
Government incentives, research funding and public-private partnerships could speed this progress, much as subsidies support fossil fuel extraction and have helped solar and wind power scale up in providing electricity.
Treating acid mine drainage and extracting its valuable rare earth elements offers a way to transform pollution into prosperity. Creating policies that clarify ownership, investing in research and supporting responsible recovery could ensure that Appalachian communities benefit from this new chapter, one in which cleanup and clean energy advance together.
This article originally appeared on The Conversation. You can read it here.
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