Mining
Boron: Making Modern Life Possible
Boron: Making Modern Life Possible
When it comes to modern living, there are so many things we take for granted.
We sleep in warm and comfortable houses, while keeping our food fresh and refrigerated. We have screens in our pockets and throughout our homes that help us to connect with our friends and family – and we can drive across town in minutes to see them, if need be.
Oddly enough, many of these subtle aspects of modern living would not be possible without the existence of very specific minerals and the developments in technology that allow them to be used to their full potential.
Enter Boron
Boron is an unlikely hero in this regard.
Today’s infographic comes from 20 Mule Team Borax, and it covers the properties, applications, market, and future trends surrounding boron. And even though you probably didn’t know much about this metalloid element before today, you’ll soon see that boron’s versatile applications make it an integral part of modern life in many ways:
In fact, boron has an incredible range of properties and uses that make it interesting to us humans:
- It’s an essential micronutrient for plants
- It improves the performance of cleaning products
- It captures neutrons, making nuclear reactors safer
- It absorbs infrared light, useful for energy efficiency
- Boron limits growth of bacteria and fungi on wood products
- It helps to balance acidity and alkalinity
- Boron makes glass resistant to heat or chemicals
- Boron prevents corrosion in many settings
- It be used to make advanced materials
- It can be used in materials and coatings to suppress flames
- Boron can be added to steel or aluminum, or used in super-magnets
- It can link alcohols and carbohydrates together in oil recovery
As a result of this vast array of applications, boron is used in everything from smartphone screens to fertilizer.
Small amounts of boron sit in the walls and ceiling of your home, your kitchen, your bathroom, and your driveway – and it’s even in a lot of food since it is an essential micronutrient for plants.
Future Megatrends
There are three megatrends that are driving future boron consumption: urbanization, energy, and agriculture.
Urbanization
By 2025, China will have 221 cities with over 1 million people. Boron is heavily used in cities and buildings, in applications such as glazed ceramics, LCD televisions and electronics, appliances, and textile fiberglass.
Agriculture
Because boron helps regulate the reproductive cycle of plants, it is needed to help maximize food production for a growing population. In India, the use of boron and other micronutrients is being supported by government projects and subsidies to ensure that farmers increase productivity.
Energy
Boron is also used in energy saving applications such as insulation, which will be key as green building practices are encouraged throughout the world. Borates are also used to create the high-powered magnets in applications like wind turbines, making them even more important for a green future.
Energy
Visualizing the Uranium Mining Industry in 3 Charts
These visuals highlight the uranium mining industry and its output, as well as the trajectory of nuclear energy from 1960 to today.

When uranium was discovered in 1789 by Martin Heinrich Klaproth, it’s likely the German chemist didn’t know how important the element would become to human life.
Used minimally in glazing and ceramics, uranium was originally mined as a byproduct of producing radium until the late 1930s. However, the discovery of nuclear fission, and the potential promise of nuclear power, changed everything.
What’s the current state of the uranium mining industry? This series of charts from Truman Du highlights production and the use of uranium using 2021 data from the World Nuclear Association (WNA) and Our World in Data.
Who are the Biggest Uranium Miners in the World?
Most of the world’s biggest uranium suppliers are based in countries with the largest uranium deposits, like Australia, Kazakhstan, and Canada.
The largest of these companies is Kazatomprom, a Kazakhstani state-owned company that produced 25% of the world’s new uranium supply in 2021.
As seen in the above chart, 94% of the roughly 48,000 tonnes of uranium mined globally in 2021 came from just 13 companies.
Rank | Company | 2021 Uranium Production (tonnes) | Percent of Total |
---|---|---|---|
1 | 🇰🇿 Kazatomprom | 11,858 | 25% |
2 | 🇫🇷 Orano | 4,541 | 9% |
3 | 🇷🇺 Uranium One | 4,514 | 9% |
4 | 🇨🇦 Cameco | 4,397 | 9% |
5 | 🇨🇳 CGN | 4,112 | 9% |
6 | 🇺🇿 Navoi Mining | 3,500 | 7% |
7 | 🇨🇳 CNNC | 3,562 | 7% |
8 | 🇷🇺 ARMZ | 2,635 | 5% |
9 | 🇦🇺 General Atomics/Quasar | 2,241 | 5% |
10 | 🇦🇺 BHP | 1,922 | 4% |
11 | 🇬🇧 Energy Asia | 900 | 2% |
12 | 🇳🇪 Sopamin | 809 | 2% |
13 | 🇺🇦 VostGok | 455 | 1% |
14 | Other | 2,886 | 6% |
Total | 48,332 | 100% |
France’s Orano, another state-owned company, was the world’s second largest producer of uranium at 4,541 tonnes.
Companies rounding out the top five all had similar uranium production numbers to Orano, each contributing around 9% of the global total. Those include Uranium One from Russia, Cameco from Canada, and CGN in China.
Where are the Largest Uranium Mines Found?
The majority of uranium deposits around the world are found in 16 countries with Australia, Kazakhstan, and Canada accounting for for nearly 40% of recoverable uranium reserves.
But having large reserves doesn’t necessarily translate to uranium production numbers. For example, though Australia has the biggest single deposit of uranium (Olympic Dam) and the largest reserves overall, the country ranks fourth in uranium supplied, coming in at 9%.
Here are the top 10 uranium mines in the world, accounting for 53% of the world’s supply.
Of the largest mines in the world, four are found in Kazakhstan. Altogether, uranium mined in Kazakhstan accounted for 45% of the world’s uranium supply in 2021.
Uranium Mine | Country | Main Owner | 2021 Production |
---|---|---|---|
Cigar Lake | 🇨🇦 Canada | Cameco/Orano | 4,693t |
Inkai 1-3 | 🇰🇿 Kazakhstan | Kazaktomprom/Cameco | 3,449t |
Husab | 🇳🇦 Namibia | Swakop Uranium (CGN) | 3,309t |
Karatau (Budenovskoye 2) | 🇰🇿 Kazakhstan | Uranium One/Kazatomprom | 2,561t |
Rössing | 🇳🇦 Namibia | CNNC | 2,444t |
Four Mile | 🇦🇺 Australia | Quasar | 2,241t |
SOMAIR | 🇳🇪 Niger | Orano | 1,996t |
Olympic Dam | 🇦🇺 Australia | BHP Billiton | 1,922t |
Central Mynkuduk | 🇰🇿 Kazakhstan | Ortalyk | 1,579t |
Kharasan 1 | 🇰🇿 Kazakhstan | Kazatomprom/Uranium One | 1,579t |
Namibia, which has two of the five largest uranium mines in operation, is the second largest supplier of uranium by country, at 12%, followed by Canada at 10%.
Interestingly, the owners of these mines are not necessarily local. For example, France’s Orano operates mines in Canada and Niger. Russia’s Uranium One operates mines in Kazakhstan, the U.S., and Tanzania. China’s CGN owns mines in Namibia.
And despite the African continent holding a sizable amount of uranium reserves, no African company placed in the top 10 biggest companies by production. Sopamin from Niger was the highest ranked at #12 with 809 tonnes mined.
Uranium Mining and Nuclear Energy
Uranium mining has changed drastically since the first few nuclear power plants came online in the 1950s.
For 30 years, uranium production grew steadily due to both increasing demand for nuclear energy and expanding nuclear arsenals, eventually peaking at 69,692 tonnes mined in 1980 at the height of the Cold War.
Nuclear energy production (measured in terawatt-hours) also rose consistently until the 21st century, peaking in 2001 when it contributed nearly 7% to the world’s energy supply. But in the years following, it started to drop and flatline.
By 2021, nuclear energy had fallen to 4.3% of global energy production. Several nuclear accidents—Chernobyl, Three Mile Island, and Fukushima—contributed to turning sentiment against nuclear energy.
Year | Nuclear Energy Production | % of Total Energy |
---|---|---|
1965 | 72 TWh | 0.2% |
1966 | 98 TWh | 0.2% |
1967 | 116 TWh | 0.2% |
1968 | 148 TWh | 0.3% |
1969 | 175 TWh | 0.3% |
1970 | 224 TWh | 0.4% |
1971 | 311 TWh | 0.5% |
1972 | 432 TWh | 0.7% |
1973 | 579 TWh | 0.9% |
1974 | 756 TWh | 1.1% |
1975 | 1,049 TWh | 1.6% |
1976 | 1,228 TWh | 1.7% |
1977 | 1,528 TWh | 2.1% |
1978 | 1,776 TWh | 2.3% |
1979 | 1,847 TWh | 2.4% |
1980 | 2,020 TWh | 2.6% |
1981 | 2,386 TWh | 3.1% |
1982 | 2,588 TWh | 3.4% |
1983 | 2,933 TWh | 3.7% |
1984 | 3,560 TWh | 4.3% |
1985 | 4,225 TWh | 5% |
1986 | 4,525 TWh | 5.3% |
1987 | 4,922 TWh | 5.5% |
1988 | 5,366 TWh | 5.8% |
1989 | 5,519 TWh | 5.8% |
1990 | 5,676 TWh | 5.9% |
1991 | 5,948 TWh | 6.2% |
1992 | 5,993 TWh | 6.2% |
1993 | 6,199 TWh | 6.4% |
1994 | 6,316 TWh | 6.4% |
1995 | 6,590 TWh | 6.5% |
1996 | 6,829 TWh | 6.6% |
1997 | 6,782 TWh | 6.5% |
1998 | 6,899 TWh | 6.5% |
1999 | 7,162 TWh | 6.7% |
2000 | 7,323 TWh | 6.6% |
2001 | 7,481 TWh | 6.7% |
2002 | 7,552 TWh | 6.6% |
2003 | 7,351 TWh | 6.2% |
2004 | 7,636 TWh | 6.2% |
2005 | 7,608 TWh | 6% |
2006 | 7,654 TWh | 5.8% |
2007 | 7,452 TWh | 5.5% |
2008 | 7,382 TWh | 5.4% |
2009 | 7,233 TWh | 5.4% |
2010 | 7,374 TWh | 5.2% |
2011 | 7,022 TWh | 4.9% |
2012 | 6,501 TWh | 4.4% |
2013 | 6,513 TWh | 4.4% |
2014 | 6,607 TWh | 4.4% |
2015 | 6,656 TWh | 4.4% |
2016 | 6,715 TWh | 4.3% |
2017 | 6,735 TWh | 4.3% |
2018 | 6,856 TWh | 4.2% |
2019 | 7,073 TWh | 4.3% |
2020 | 6,789 TWh | 4.3% |
2021 | 7,031 TWh | 4.3% |
More recently, a return to nuclear energy has gained some support as countries push for transitions to cleaner energy, since nuclear power generates no direct carbon emissions.
What’s Next for Nuclear Energy?
Nuclear remains one of the least harmful sources of energy, and some countries are pursuing advancements in nuclear tech to fight climate change.
Small, modular nuclear reactors are one of the current proposed solutions to both bring down costs and reduce construction time of nuclear power plants. The benefits include smaller capital investments and location flexibility by trading off energy generation capacity.
With countries having to deal with aging nuclear reactors and climate change at the same time, replacements need to be considered. Will they come in the form of new nuclear power and uranium mining, or alternative sources of energy?
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