The Democratic Republic of the Congo has the largest cobalt reserves in the world, at some *********** metric tons as of 2024. With the world's total cobalt reserves amounting to ********** metric tons that year, the DR Congo accounted for more than **** of the worldwide reserves of the metal. This was followed by Australia, which held an impressive *********** metric tons of the global cobalt reserves in 2024. Cobalt: coveted, yet not so rare Although cobalt is not especially rare – ranking 32nd in global abundance among metals – it has become an increasingly important commodity due to its use in batteries, as well as in alloys, chemicals and ceramics, cemented carbides, and more. It is forecast that in 2040, the global cobalt demand for use in batteries will amount to ******* tons, up from ****** metric tons in recent years. Cobalt's use in batteries applies particularly to the batteries of electric cars which have transformed the demand for this metal; in 2024 the price of cobalt stood at ** U.S. dollars per pound. U.S. cobalt consumption The United States used some ***** metric tons of cobalt in 2023, based on apparent consumption. Cobalt supply in the North American country is achieved primarily through imports and scrap materials. Most of the country's consumption of this metal is destined to the production of superalloys, followed by chemical and ceramic uses.
The point and polygon layers within this geodatabase present the global distribution of selected mineral resource features (deposits, mines, districts, mineral regions) for 22 minerals or mineral commodities considered critical to the economy and security of the United States as of 2017. These data complement the report by Schulz and others (2017) which provides national and global information on 23 critical minerals - antimony (Sb), barite (barium, Ba), beryllium (Be), cobalt (Co), fluorite or fluorspar (fluorine, F), gallium (Ga), germanium (Ge), graphite (carbon, C), hafnium (Hf), indium (In), lithium (Li), manganese (Mn), niobium (Nb), platinum-group elements (PGE), rare-earth elements (REE), rhenium (Re), selenium (Se), tantalum (Ta), tellurium (Te), tin (Sn), titanium (Ti), vanadium (V), and zirconium (Zr) resources. The geospatial locations for deposits containing selenium, which is recovered mainly as a byproduct of other produced mineral commodities, is not included in this geodatabase. These geospatial data and the accompanying report are an update to information published in 1973 in U.S. Geological Survey Professional Paper 820, United States Mineral Resources. For the current and full discussion of the individual critical minerals, their uses, identified resources, national and global distribution, geologic overview, resource assessment, and geoenvironmental considerations see: Schulz, K.J., DeYoung, J.H., Jr., Seal, R.R., II, and Bradley, D.C., eds., 2017, Critical mineral resources of the United States—Economic and environmental geology and prospects for future supply: U.S. Geological Survey Professional Paper 1802, 777 p., https://doi.org/10.3133/pp1802
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Abstract This layer contains point locations of major mineral deposits, and includes the geological setting, the timing and type of mineralisation, global resource endowments, associated host and igneous rocks, alteration assemblages, and metamorphism, where known. The deposits were selected as they have substantial endowment (i.e. pre-mining mineral resource) and/or detailed geological information is available. For each deposit (or, in some cases, district) the dataset includes information on: 1. Name (including synonyms), location and GA identifying numbers; 2. Tectonic province that hosts the deposit; 3. Type(s) and age(s) of mineralising events that produced/affected the deposit (including metadata on ages); 4. The metal/mineral endowment of the deposit; 5. Host rocks to the deposit; 6. Spatially and/or temporally associated magmatic rocks; 7. Spatially and temporally associated alteration assemblages (mostly proximal, but, in some cases, regional assemblages); 8. The Fe-S-O minerals present in the deposit and relative abundances where known; 9. Sulfate minerals present; 10. Peak metamorphic grade; 11. Data sources; and 12. Comments. For many commodities, there are many hundreds or thousands of deposits and occurrences around Australia, with only a small fraction of these deposits/occurrences making a significant contribution to Australia’s mineral endowment. This dataset contains information about these deposits. In some cases, a number of small deposits have been grouped together into a district, but in other cases, small deposits have been ignored. However, where important information, such as the age of small deposits or occurrences are available, they have been included. This document presents more detailed descriptions of the metadata presented in the compilation. The dataset is presented in Appendix A. Appendix B presents a national classification of geological provinces based mostly on existing State survey classifications; Appendix C presents a deposit classification based on the classification proposed by Hofstra et al. (2021); and Appendix D presents mineral abbreviations used in the dataset. The Annexes are available here: Geological setting, age and endowment of major Australian mineral deposits - a compilation. Data Dictionary Australian Minerals Data - Mineral Deposits - Geological Setting, Age and Endowment
Attribute Name Description
DEPOSIT_ENO Deposit (ENO)
DEPOSIT_PID Deposit Persistent ID (PID)
DEPOSIT_NAME Preferred name of the mineral occurrence, prospect, or deposit as recorded on a map or other source reference.
SYNONYMS Alternative names that may have been given to the occurrence/deposit
LONGITUDE_GDA94 Longitude in GDA94
LATITUDE_GDA94 Latitude in GDA94
STATE State in Australia
COMMODITIES The earth resource commodity (eg Cu, Au, Fe)
OPERATING_STATUS Describes the current stage of development of the deposit, prospect, or mineral occurrence
MINING_DISTRICT Mining District
SUPERPROVINCE_ENO Superprovince ENO
SUPERPROVINCE_NAME Superprovince name
PROVINCE_ENO Province ENO
PROVINCE_NAME Province name
SUBPROVINCE_ENO Subprovince ENO
SUBPROVINCE_NAME Subprovince name
DEPOSIT_ENVIRONMENT Deposit environment
DEPOSIT_GROUP Deposit group
DEPOSIT_TYPE Deposit type
FIRST_EVENTNO Event number
FIRST_EVENT_NAME Event name
FIRST_EVENT_TIMING Event timing
FIRST_CONTRIBUTION Contribution
FIRST_EVENT_DEPOSIT_ENVIRONMENT Event Deposit environment
FIRST_EVENT_DEPOSIT_GROUP Event Deposit group
FIRST_EVENT_DEPOSIT_TYPE Event Deposit type
FIRST_AGE_MA Age (Ma)
FIRST_AGE_ERROR Age error
FIRST_AGE_TYPE Age type
FIRST_AGE_BASIS Age basis
FIRST_MINERAL_DATED Mineral dated
FIRST_AGE_SYSTEM Age system
FIRST_RADIOMETRIC_AGE_TYPE Radiometric Age type
FIRST_AGE_INSTRUMENTATION Age instrumentation
FIRST_AGE_CONFIDENCE Age confidence
SECOND_EVENTNO Event number
SECOND_EVENT_NAME Event name
SECOND_EVENT_TIMING Event timing
SECOND_CONTRIBUTION Contribution
SECOND_EVENT_DEPOSIT_ENVIRONMENT Event Deposit environment
SECOND_EVENT_DEPOSIT_GROUP Event Deposit group
SECOND_EVENT_DEPOSIT_TYPE Event Deposit type
SECOND_AGE_MA Age (Ma)
SECOND_AGE_ERROR Age error
SECOND_AGE_TYPE Age type
SECOND_AGE_BASIS Age basis
SECOND_MINERAL_DATED Mineral dated
SECOND_AGE_SYSTEM Age system
SECOND_RADIOMETRIC_AGE_TYPE Radiometric Age type
SECOND_AGE_INSTRUMENTATION Age instrumentation
SECOND_AGE_CONFIDENCE Age confidence
THIRD_EVENTNO Event number
THIRD_EVENT_NAME Event name
THIRD_EVENT_TIMING Event timing
THIRD_CONTRIBUTION Contribution
THIRD_EVENT_DEPOSIT_ENVIRONMENT Event Deposit environment
THIRD_EVENT_DEPOSIT_GROUP Event Deposit group
THIRD_EVENT_DEPOSIT_TYPE Event Deposit type
THIRD_AGE_MA Age (Ma)
THIRD_AGE_ERROR Age error
THIRD_AGE_TYPE Age type
THIRD_AGE_BASIS Age Basis
THIRD_MINERAL_DATED Mineral dated
THIRD_AGE_SYSTEM Age system
THIRD_RADIOMETRIC_AGE_TYPE Radiometric Age type
THIRD_AGE_INSTRUMENTATION Age Instrumentation
THIRD_AGE_CONFIDENCE Age confidence
ENDOWMENT_TONNAGE_MT Tonnage (Mt)
ENDOWMENT_BRINE_VOLUME_MM3 Brine volume (Mm3)
CU_PERCENT Percentage of Copper
ZN_PERCENT Percentage of Zinc
PB_PERCENT Percentage of Lead
AG_GRAMS_PER_TONNE Silver (Grams Per Tonne)
AU_GRAMS_PER_TONNE Gold (Grams Per Tonne)
BARITE_PERCENT Percentage of Barite
SB_PERCENT Percentage of Antimony
CD_PERCENT Percentage of Cadmium
SN_PERCENT Percentage of Tin
WO3_PERCENT Percentage of Tungsten Trioxide
MO_PERCENT Percentage of Molybdenum
RE_GRAMS_PER_TONNE Rhenium (Grams Per Tonne)
IN_GRAMS_PER_TONNE Indium (Grams Per Tonne)
F_PERCENT Percentage of Fluorine
BI_PERCENT Percentage of Bismuth
TA_GRAMS_PER_TONNE Tantalum (Grams Per Tonne)
NB_PERCENT Percentage of Niobium
LI2O_PERCENT Percentage of Lithium Oxide
REO_PERCENT Percentage of Rare Earth Oxides
Y_PERCENT Percentage of Yttrium
HF_PERCENT Percentage of Hafnium
U3O8_KILOGRAMS_PER_TONNE Triuranium octoxide (kilograms per tonne)
NI_PERCENT Percentage of Nickel
CO_PERCENT Percentage of Cobalt
PT_GRAMS_PER_TONNE Platinum (Grams Per Tonne)
PD_GRAMS_PER_TONNE Palladium (Grams Per Tonne)
RH_GRAMS_PER_TONNE Rhodium (Grams Per Tonne)
IR_GRAMS_PER_TONNE Iridium (Grams Per Tonne)
OS_GRAMS_PER_TONNE Osmium (Grams Per Tonne)
ZRN_PERCENT Percentage of Zircon
FE_PERCENT Percentage of Iron
V2O5_PERCENT Percentage of Vanadium Pentoxide
SC_KILOGRAMS_PER_TONNE Scandium (Kilograms Per Tonne)
CR2O3_PERCENT Percentage of Chromic Oxide
MG_PERCENT Percentage of Magnesium
MN_PERCENT Percentage of Manganese
AL2O3_PERCENT Percentage of Aluminium Oxide
DIAMOND_CARATS_PER_TONNE Diamond Carats Per Tonne
HEAVY_MINERALS_PERCENT Percentage of Heavy Minerals
P2O5_PERCENT Percentage of Phosphate
SALT_PERCENT Percentage of Salt
K_PERCENT Percentage of Potassium
GRAPHITE_PERCENT Percentage of Graphite
CAF2_PERCENT Percentage of Calcium Fluoride
CU_MEGATONNES Copper Megatonnes
ZN_MEGATONNES Zinc Megatonnes
PB_MEGATONNES Lead Megatonnes
AG_KILOTONNES Silver Kilotonnes
AU_TONNES Gold Tonnes
BARITE_MEGATONNES Barite Megatonnes
SB_KILOTONNES Antimony Kilotonnes
CD_KILOTONNES Cadmium Kilotonnes
SN_KILOTONNES Tin Kilotonnes
WO3_KILOTONNES Tungsten Trioxide Kilotonnes
MO_KILOTONNES Molybdenum Kilotonnes
RE_MEGATONNES Rhenium Megatonnes
IN_KILOTONNES Indium Kilotonnes
F_KILOTONNES Fluorine Kilotonnes
BI_KILOTONNES Bismuth Kilotonnes
TA_KILOTONNES Tantalum Kilotonnes
NB_KILOTONNES Niobium Kilotonnes
LI_KILOTONNES Lithium Kilotonnes
REO_MEGATONNES Rare Earth Oxides Megatonnes
Y_MEGATONNES Yttirum Megatonnes
HF_MEGATONNES Hafnium Megatonnes
U3O8_TONNES Triuranium Octoxide Megatonnes
NI_MEGATONNES Nickel Megatonnes
CO_KILOTONNES Cobalt Kilotonnes
PT_TONNES Platnum Tonnes
PD_TONNES Palladium Tonnes
RH_TONNES Rhodium Tonnes
IR_TONNES Iridium Tonnes
OS_TONNES Osmium Tonnes
ZR_MEGATONNES Zirconium Megatonnes
FE_MEGATONNES Iron Megatonnes
V2O5_KILOTONNES Vanadium Oxide Kilotonnes
SC_TONNES Scandium Tonnes
CR2O3_MEGATONNES Chromic Oxide Megatonnes
MG_MEGATONNES Magnesium Megatonnes
MN_MEGATONNES Manganese Megatonnes
AL2O3_GIGATONNES Aluminium Oxide Gigatonnes
DIAMOND_MEGACARATS Diamond Mega Carat
HEAVY_MINERALS_MEGATONNES Heavy Minerals Megatonnes
P2O5_MEGATONNES Phosphate Megatonnes
SALT_MEGATONNES Salt Megatonnes
K2SO4_KILOTONNES Potassium Sulfate Kilotonnes
GR_MEGATONNES Graphite Megatonnes
FL_KILOTONNES Fluorite Megatonnes
FIRST_HOST_ROCK_STRATNO Host Rock Stratigraphic Index Number (STRANTNO)
FIRST_HOST_ROCK_PID Host Rock Persistent ID (PID)
FIRST_HOST_ROCK_NAME Host Rock Name
FIRST_HOST_ROCK_DESCRIPTION Host Rock Description
FIRST_HOST_ROCK_AGE Host Rock Age
SECOND_HOST_ROCK_STRATNO Host Rock Stratigraphic Index Number (STRANTNO)
SECOND_HOST_ROCK_PID Host Rock Persistent ID (PID)
SECOND_HOST_ROCK_NAME Host Rock Name
SECOND_HOST_ROCK_DESCRIPTION Host Rock Description
SECOND_HOST_ROCK_AGE Host Rock Age
THIRD_HOST_ROCK_STRATNO Host Rock Stratigraphic Index Number (STRANTNO)
THIRD_HOST_ROCK_PID Host Rock Persistent ID (PID)
THIRD_HOST_ROCK_NAME Host Rock Name
THIRD_HOST_ROCK_DESCRIPTION Host Rock Description
THIRD_HOST_ROCK_AGE Host Rock Age
FOURTH_HOST_ROCK_STRATNO Host Rock Stratigraphic Index Number (STRANTNO)
FOURTH_HOST_ROCK_PID Host Rock Persistent ID (PID)
FOURTH_HOST_ROCK_NAME Host Rock Name
FOURTH_HOST_ROCK_DESCRIPTION Host Rock Description
FOURTH_HOST_ROCK_AGE Host Rock Age
FIFTH_HOST_ROCK_STRATNO Host Rock Stratigraphic Index Number (STRANTNO)
FIFTH_HOST_ROCK_PID Host Rock Persistent ID (PID)
FIFTH_HOST_ROCK_NAME Host Rock Name
FIFTH_HOST_ROCK_DESCRIPTION Host Rock Description
FIFTH_HOST_ROCK_AGE Host Rock Age
SIXTH_HOST_ROCK_STRATNO Host Rock Stratigraphic Index Number (STRANTNO)
SIXTH_HOST_ROCK_PID Host Rock Persistent ID (PID)
SIXTH_HOST_ROCK_NAME Host
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Cobalt traded flat at 33,335 USD/T on July 17, 2025. Over the past month, Cobalt's price has remained flat, but it is still 25.20% higher than a year ago, according to trading on a contract for difference (CFD) that tracks the benchmark market for this commodity. Cobalt - values, historical data, forecasts and news - updated on July of 2025.
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Botswana: Cobalt production in metric tons: The latest value from 2016 is 248 metric tons, a decline from 316 metric tons in 2015. In comparison, the world average is 5102 metric tons, based on data from 22 countries. Historically, the average for Botswana from 1998 to 2016 is 277 metric tons. The minimum value, 149 metric tons, was reached in 2011 while the maximum of 342 metric tons was recorded in 2009.
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Mexico: Cobalt production in metric tons: The latest value from 2022 is 600 metric tons, a decline from 1100 metric tons in 2021. In comparison, the world average is 9845 metric tons, based on data from 20 countries. Historically, the average for Mexico from 2016 to 2022 is 1026 metric tons. The minimum value, 600 metric tons, was reached in 2022 while the maximum of 1400 metric tons was recorded in 2018.
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Bangladesh: Cobalt production in metric tons: The latest value from is metric tons, unavailable from metric tons in . In comparison, the world average is 0 metric tons, based on data from countries. Historically, the average for Bangladesh from to is metric tons. The minimum value, metric tons, was reached in while the maximum of metric tons was recorded in .
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Vietnam: Cobalt production in metric tons: The latest value from 2016 is 134 metric tons, a decline from 277 metric tons in 2015. In comparison, the world average is 5102 metric tons, based on data from 22 countries. Historically, the average for Vietnam from 2013 to 2016 is 165 metric tons. The minimum value, 25 metric tons, was reached in 2013 while the maximum of 277 metric tons was recorded in 2015.
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Nickel fell to 15,412.88 USD/T on July 24, 2025, down 1.04% from the previous day. Over the past month, Nickel's price has risen 2.24%, but it is still 2.26% lower than a year ago, according to trading on a contract for difference (CFD) that tracks the benchmark market for this commodity. Nickel - values, historical data, forecasts and news - updated on July of 2025.
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The Democratic Republic of the Congo has the largest cobalt reserves in the world, at some *********** metric tons as of 2024. With the world's total cobalt reserves amounting to ********** metric tons that year, the DR Congo accounted for more than **** of the worldwide reserves of the metal. This was followed by Australia, which held an impressive *********** metric tons of the global cobalt reserves in 2024. Cobalt: coveted, yet not so rare Although cobalt is not especially rare – ranking 32nd in global abundance among metals – it has become an increasingly important commodity due to its use in batteries, as well as in alloys, chemicals and ceramics, cemented carbides, and more. It is forecast that in 2040, the global cobalt demand for use in batteries will amount to ******* tons, up from ****** metric tons in recent years. Cobalt's use in batteries applies particularly to the batteries of electric cars which have transformed the demand for this metal; in 2024 the price of cobalt stood at ** U.S. dollars per pound. U.S. cobalt consumption The United States used some ***** metric tons of cobalt in 2023, based on apparent consumption. Cobalt supply in the North American country is achieved primarily through imports and scrap materials. Most of the country's consumption of this metal is destined to the production of superalloys, followed by chemical and ceramic uses.