A dataset of over 1300 source mines, locations and estimated concentrations corresponding to critical rare earth minerals from over 28 countries. Lithium and Cobalt are also covered.
A dataset of over 1300 source mines, locations and estimated concentrations corresponding to critical rare earth minerals from over 28 countries. Lithium and Cobalt are also covered.
Key Fields
Country
Mine Name
Mine Latitude
Mine Longitude
Cerium (parts per million or 'ppm')
Cobalt (ppm)
Dysprosium (ppm)
Erbium (ppm)
Europium (ppm)
Gadolinium (ppm)
Holmium(ppm)
Lanthanum (ppm)
Lithium (ppm)
Lutetium (ppm)
Neodymium(ppm)
Promethium (ppm)
Scandium(ppm)
Samarium (ppm)
Terbium (ppm)
Thulium (ppm)
Yttrium (ppm)
Ytterbium (ppm)
Applications
Developing rare earth sourcing and investment strategy
Rare Earth Exploration and Research
Collecting market or geopolitical intelligence
Creating financial presentations and content
Prediction and Modeling
Data Collection Methodology
The data is collected from a variety of diverse public and non-published sources. The data is then corroborated and cross-checked against published research datapoints. This is followed by data review and publication on AWS.
Related Datasets
You may be interested in these related datasets that are also excellent resources. Some of these provide background context while others provide objective datapoints.
If you need a more comprehensive list of datasets related to rare earths, reach out to us at awsdataexchange@refdb.org
Dataset Name
Source
Link
Critical Minerals Mapping Initiative
Geoscience Australia, the Geological Survey of Canada and the United States Geological Survey
Frequently Asked Questions about Rare-earth elements (REEs)
What Are Rare-earth elements (REEs)?
Rare-earth elements (REE) are a set of nearly-indistinguishable lustrous silvery-white soft heavy metals. Compounds containing rare earths have diverse applications in electrical and electronic components, lasers, glass, magnetic materials, and industrial processes.
They are also called the rare-earth metals or (in context) rare-earth oxides or sometimes the lanthanides (yttrium and scandium are usually included as rare earths).
Lithium and Cobalt are not formally classified as one of these rare earth elements, however, that does not mean that they are easy to acquire at scale for commercial use.
When were Rare-earth elements discovered?
Although the rare earths have been around since the formation of Earth, their existence did not come to light until the late 18th century. In 1787 the Swedish army lieutenant Carl Axel Arrhenius discovered a unique black mineral in a small quarry in Ytterby (a small town near Stockholm). That mineral was a mixture of rare earths, and the first individual element to be isolated was Cerium in 1803.
What are some example uses of Rare earth minerals?
Rare earth minerals are key ingredients for devices such as iPhones, as well as wind turbines, hybrid cars, and night-vision goggles. Minerals such as neodymium are used to magnets for speakers. They also find use in wind turbines and drive trains. Europium is a phosphor used in displays. Cerium can find use in commercial solvents. REEs are also being used in special ceramics, fluorescent lighting and PET scanners.
Where are REEs found?
Rare-earth ore deposits are found all over the world. The major ores are in China, the United States, Australia, and Russia, while other viable ore bodies are found in Canada, India, South Africa, and southeast Asia. Chinese deposits accounted for at least 80 percent of the rare earths mined in the world (e.g., 105,000 tons of rare-earth oxide). It is estimated that approximately 94 percent of the rare earths mined in China are from bastnasite deposits.
Prices and demand for rare earth materials have risen dramatically over the past decade. China produces the majority of the supply. Deposits in Australia and the United States are increasing explorations and operations.
Additional Questions
If you have questions about this dataset or a related dataset, contact us at awsdataexchange@refdb.org
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This listing uses a single pricing dimension called Product Access (Units). You buy under a contract that grants access to the Critical Minerals and Rare Earths Dataset. Pricing is based on the number of units you subscribe to, so it scales with the quantity you select. There are no separate tiers, instance sizes, or usage add-ons to combine. You pay for the access units defined in your contract term.
Top-of-mind questions for buyers
What does one unit of Product Access represent for this dataset?
A unit grants access to the Critical Minerals and Rare Earths Dataset under your contract. The unit is defined in your contract terms rather than tied to a device, user, or record count. Contact the vendor to confirm how many units your intended use requires.
How is the dataset delivered and integrated into my systems?
You can receive data through delivery on AWS, an API, or flat files. These options let you plug feeds directly into your platform. The delivery method does not change the pricing dimension, which is based on the access units in your contract.
Does my cost change based on how much data I pull or query?
No. This listing uses one contract-based dimension for access units. Your cost is set by the number of units you subscribe to, not by query volume or the amount of data retrieved. There are no usage add-ons or overage charges layered on top.
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