Mining
Global Gold Mines and Deposits Ranking 2012






Introduction
Following on the success of last year’s report we have decided to make the ranking of the world’s gold deposits an annual endeavor highlighting trends in future mine supply, depletion, discoveries, and in-situ grades.
As far as we know, there has not been a similar effort to compile a comprehensive database of the world’s gold mines and deposits. Nevertheless, we rose to the laborious challenge as we knew that the industry reliance on risk capital via public markets presented an opportunity to data mine regulatory filings which would result in a high quality database.
With this research our goal was to provide quantitative answers to some of the questions we kept asking ourselves as investors in the space. Questions such as:
How many ounces of in-situ gold exist?
How many gold mines exist in Canada?
How rare is a 1.0 million ounce undeveloped deposit?
The report answers these questions and more while providing insight into the scarcity of mines & deposits. Additionally, having a granular view of the supply mix is useful as it allows market participants to ascertain the long-term supply and demand fundamentals of the metal.
We have made some important changes this year to the methodology of the database adding grade, tonnage, and government owned mines/deposits. We also partnered with Visual Capitalists, an investor website that provides rich visual content, to assist in visualizing the data we compiled. The report is free for usage and distribution with acknowledgment of the author.
Sincerely,
Roy Sebag
Changes to Methodology
This year we implemented some important changes to our methodology leading to a higher quality database that is more comprehensive:
A) Introduction of Grade and Tonnage in grams per tonne providing a more qualitative analysis of each respective deposit.
B) The inclusion of Government owned deposits such as Murantao and Sukhoi Log.
C) The inclusion of South African mines and deposits.
D) The inclusion of Australian listed companies as well as Polyus, Anglogold Ashanti and Newcrest, companies that are harder to compile due to the opacity of their mineral resource disclosure.
While we still have serious reservations relating to what portion of delineated resources can actually be extracted in the South African deposits we felt that they warranted inclusion in order to provide readers with an all-encompassing database. That same logic led us to include government owned mines even though we are somewhat skeptical of their reported grades and often relied on an outdated technical report.
Methodology
We started with a list of 1,892 publicly traded companies that are in some way involved in gold production, exploration, or development of over 7,000 geologic anomalies. Our goal was to find an undeveloped gold deposit or producing mine that hosted over 1 million troy ounces of in-situ resources under a globally respected mineral definition standard such as CIM NI 43-101, JORC, or SAMREC.
In an effort to provide the most comprehensive database and due to the fact that every proven or probable ounce starts of as inferred, we aggregate all resource categories into one figure (refer to last year’s report for a discussion relating to aggregating all resource categories). Where there are reserves and resources we will most likely use the inclusive resource figure. When a cutoff grade is recommended by a geological consultancy we will rely on that cutoff grade unless the report was outdated and we felt a lower cutoff grade was warranted. It is important to stress that resources are not necessarily indicative of future mine supply given that metallurgical recovery rates and economic pit outlines are not applied. In the “Potential Mine Supply Exercise” section we discuss this further.
When it came to copper/gold porphyries it was difficult to draw the line as to what was a gold deposit vs. a copper deposit. In this year’s report we included deposits such as Reko Diq and Galore Creek because we felt their global contained ounces were too large to disregard even though they are primarily copper deposits.
2012 Result Summary
From an initial list of 1,896 companies we were able to identify 212 entities (Public, Private and Government Sponsored Corporations) that own 439 gold deposits hosting over 1,000,000 ounces in all categories representing a total of 3,015,542,164 ounces of gold. The complete list can be found at the end of this report.
Summary of Findings:
Total Mines & Deposits in over 1 million ounces in-situ: 439
Total In-Situ Ounces: 3,015,542,164 Total Tonnage & Grade of Database: 113.9 Billion Tonnes @ .82 g/t
Total In-Situ Ounces & Avg. Grade Producing Mines: 1,556,265,676 oz. @ 1.06 g/t
Total In-Situ Ounces & Avg. Grade Undeveloped Deposits: 1,459,276,488 oz. @ .66 g/t
Global In-SITU Ranking
Mines & Deposits over 3 million Oz: 228 Mines & Deposits over 5 million Oz: 148
Mines & Deposits over 10 million Oz: 74 Mines & Deposits over 20 million Oz: 33
Producing Mines over 3 Million Oz: 120 Undeveloped Deposits over 3 Million Oz: 108
Producing Mines over 5 million Oz: 82 Undeveloped Deposits over 5 million Oz: 66
Producing Mines over 10 million Oz: 43 Undeveloped Deposits over 10 million Oz: 31
HIGH GRADE GOLD SUMMARY
Mines & Deposits over 1mm oz and 3 g/t: 136 Mines & Deposits over 1mm oz and 5 g/t: 81
Mines & Deposits over 1mm oz and 10 g/t: 26 Mines & Deposits over 1mm oz and 15 g/t: 11
Producing Mines over 1mm oz and 3 g/t: 76 Undeveloped Deposits over 1mm oz and 3 g/t: 60
Producing Mines over 1mm oz and 5 g/t: 49 Undeveloped Deposits over 1mm oz and 5 g/t: 32
Producing Mines over 1mm oz and 10 g/t: 14 Undeveloped Deposits over 1mm oz and 10 g/t: 12
For full results and tables of deposits, view the full report PDF.
2012 Results Discussion
This year’s results confirmed both the scarcity of gold deposits as well as the lower-grade production trends facing the industry. Even with our generous thresholds allowing inferred resources to be included in the database, we were able to identify only 439 mines or deposits containing over 1 million ounces of gold.
In our view a mine or deposit is an asset no different than a farm, commercial property, or financial security. Yet when it comes to gold, there are only 439 assets that meet the industry perceived economic threshold of 1 million ounces. Last year, we compared this figure to the tens of thousands of commercial real estate properties in the world or the nearly 72,000 financial securities. While the crustal abundance of gold is fixed, and discovery grades continue to decline, there is no limit to the creation of financial securities and plenty of land and building materials to construct more property. Simply put, a gold mine or deposit with over 1 million ounces is a very rare asset. This is especially true when viewing the geographical distribution of the mines & deposits:
Independently Owned Undeveloped Deposits
Another data point we found fascinating was that out of 439 mines or deposits, 189 are in fact producing mines owned by companies with an average market capitalization of $1.8 Billion. This leaves us with a universe of undeveloped deposits over 1 million ounces of just 250. Of course some of these 250 deposits are owned by miners (84) while just 166 are owned by independent junior companies, private companies, or government sponsored enterprises. Investors seeking leverage to gold should focus on these companies as they provide the best exposure to a rising gold price environment. We have attached a table with these deposits and companies at the end of the report titled “Undeveloped Deposits over 1mm oz owned by Independent Juniors”.
It is interesting to note that in Canada we were able to find only 59 undeveloped deposits over 1mm ounces owned by 49 companies (41 Independents). In the United States we found only 33 deposits owned by 26 companies (23 Independents).
Internally, the purpose of this report was to identify potential short-comings in the theories employed by leading thinkers in the gold industry. After reviewing nearly 2,000 companies in the space we can objectively say that are no such red flags. Annual discoveries in 2011 lacked the gravitas required to move the needle on the aggregate in-situ figures after incorporating depletion. This was surprising to as historically high gold prices have provided nearly unprecedented capital to gold exploration companies and we had assumed that after tallying up the year’s discoveries there would be a significant nominal gain in ounces. Another important data point was observed with regards to the grade of producing mines vs. undeveloped deposits with grades for undeveloped deposits being markedly lower (37%) guaranteeing the need for higher energy input in the future only to sustain current production figures.
Another caveat with the undeveloped deposits in the database is that some of the largest ones face significant permitting headwinds. Pebble, Reko Diq, Donlin, KSM, and Rosia Montana which represent nearly 20% of the undeveloped ounces in the database may not become mines for 10,20 and even 30 years.
Quality Deposits are Rare
While this report and the accompanying database provide an accurate view of global mine supply, there are crucial qualitative metrics still missing. Even high grade deposits with no infrastructure are inferior to easily mined bulk tonnage deposits with close proximity to infrastructure in stable geopolitical jurisdictions.
Looking at the matrix of undeveloped deposits, one can see why size and even grade are not the most important attributes when predicting which deposit will become a mine. Let us compare Cerro Cassale in Chile with 32.5mm ounces to Titiribi in Colombia with 11.1mm ounces (and continues to grow). While Cerro Cassale is nearly three times the size, its remote location in the Maricunga desert has forced Barrick to budget over $500mm for a120km water pipeline. Titiribi, owned by independent junior Sunward Resources, is located on a paved road with both water and power running directly to the site. While it is too early to estimate CAPEX for Titiribi, it is not farfetched to assume that for the amount Barrick will be spending transporting water from point A to point B, Titiribi will be producing a few hundred thousand ounces of gold per annum.
In conclusion, we would like to stress that while this database serves as an effective starting point we urge investors to incorporate additional metrics such as geopolitical risk, permitting challenges, and most importantly infrastructure when ranking deposits for investment.
Global Mine Supply Exercise
In this section we will attempt to make sense of the 3,015,542,164 ounce (93,796 tonnes) figure which is the sum of all in-situ ounces in the database. As we previously explained this figure is inaccurate as it relates to potentially mined ounces in the future due to the following factors:
1) Inclusion of inferred resources in global contained ounces.
2) Not applying any economic pit outlines.
3) Not applying any metallurgical recovery rates.
4) The inclusion of undeveloped deposits with no clear path towards permitting.
In order to project an accurate figure we will adjust the 3,015,542,164 ounce number through an exercise that incorporates metallurgical recovery rates, economic pit outlines, and physical constraints that come with moving the billions of tonnes that host these ounces.
First, we will apply a metallurgical recovery rate. Industry averages tend to be 70-90% depending on the type of mineralization. Casting a wide net, we will use 80% as our metallurgical recovery rate. Following this step we are left with 2,412,433,133 ounces.
Next, we will apply economic pit outlines to the resource figure. Once again in an effort to include the most possible ounces we will apply only a 10% reduction for potential pit outlines. Given the amount of inferred ounces in our database this is a very generous figure. Following this step we are left with 2,171,190,358 ounces or 67,533 tonnes.
Next, we will estimate the physical constraints required to mine the remaining ounces. As these ounces exist within 81 billion tonnes of ore (49 billion tonnes for undeveloped deposits containing 1.05 billion ounces after applying economic pit outlines and metallurgical recoveries) they cannot be immediately extracted from the earth’s crust.
As we are estimating future potential supply, the 189 producing mines are less important given their production is already factored in the existing supply mix. A more relevant exercise is one projecting future supply from undeveloped deposits as only they could meaningfully disrupt the supply & demand fundamentals.
Let us assume for a moment that all 250 undeveloped deposits were somehow permitted and financed tomorrow. With 49 billion tonnes to mine at an average grade of .66 g/t it would take no less than 25 years to extract the 1,050,000,000 ounces contained within these deposits. Arriving at this figure, we assume that the average build time would be 3 years and the average mill size would be 25,000 tonnes per day.
Even with our unrealistic scenario introducing all 250 undeveloped deposits into the supply mix at once, we can only quantify an increase of roughly 42mm ounces of gold production or 1,306 tonnes per annum. Compare that to current gold production of roughly 2,800 tonnes or 90mm ounces per annum.
Realistically, 50% or more of the deposits in the database will most likely remain deposits 25 years from now for a variety of factors including: permitting, ability to finance a mine, and attractiveness to a producer (producer balance sheets are so large they require significant projects to be accretive , making even most 1mm-2mm ounce deposits unattractive).
Consequently, the guaranteed depletion in the existing production mix coupled with a more realistic introduction of new mines into the mix (as opposed to our theoretical tomorrow scenario) makes it clear that barring multiple high-grade, multi-million ounce discoveries each year, a significant increase in gold production is unlikely. Moreover our back of the envelope calculations point towards gold production peaking at some point between 2022 and 2025 assuming the 90mm ounce per year figure is maintained.
Uranium
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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