List of minerals

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This is a list of minerals which have Wikipedia articles.

Contents

Minerals are distinguished by various chemical and physical properties. Differences in chemical composition and crystal structure distinguish the various species. Within a mineral species there may be variation in physical properties or minor amounts of impurities that are recognized by mineralogists or wider society as a mineral variety.

Mineral variety names are listed after the valid minerals for each letter.

For a more complete listing of all mineral names, see List of minerals recognized by the International Mineralogical Association.

A

Amethyst crystals - a purple quartz (61-365) Can you imagine%3F (5320329773).jpg
Amethyst crystals – a purple quartz
Apophyllite crystals sitting right beside a cluster of peachy bowtie stilbite Apophyllite-(KF)-Stilbite-Ca-118260.jpg
Apophyllite crystals sitting right beside a cluster of peachy bowtie stilbite
Aquamarine variety of beryl with tourmaline on orthoclase Aquamarine J1.JPG
Aquamarine variety of beryl with tourmaline on orthoclase
Arsenopyrite from Hidalgo del Parral, Chihuahua, Mexico Arsenopyrite-117874.jpg
Arsenopyrite from Hidalgo del Parral, Chihuahua, Mexico
Aurichalcite needles spraying out within a protected pocket lined by bladed calcite crystals Aurichalcite-Hemimorphite-230159.jpg
Aurichalcite needles spraying out within a protected pocket lined by bladed calcite crystals
Austinite from the Ojuela Mine, Mapimi, Durango, Mexico Austinite-177832.jpg
Austinite from the Ojuela Mine, Mapimí, Durango, Mexico
Ametrine containing amethyst and citrine, from Bolivia Ametrin from Bolivia.jpg
Ametrine containing amethyst and citrine, from Bolivia
Varieties that are not valid species:

B

Baryte (included by malachite) on malachite, from Shangulowe Mine, Kambove, Central area, Katanga, Democratic Republic of Congo Barite-Malachite-denv08-37a.jpg
Baryte (included by malachite) on malachite, from Shangulowé Mine, Kambove, Central area, Katanga, Democratic Republic of Congo
Spiky calcite scalenohedra with a coating of whitish benstonite on a layer of teal-colored fluorite Benstonite-Calcite-Fluorite-154901.jpg
Spiky calcite scalenohedra with a coating of whitish benstonite on a layer of teal-colored fluorite
Thin tabular biotite cluster Biotite aggregate - Ochtendung, Eifel, Germany.jpg
Thin tabular biotite cluster
Brookite from Kharan, Balochistan, Pakistan Brookite-gem7-07a.jpg
Brookite from Kharan, Balochistan, Pakistan
Varieties that are not valid species:

C

Radiating spray of colorless wheatsheaf calcite crystals on matrix, from Irai, Rio Grande do Sul, Brazil Calcite-20188.jpg
Radiating spray of colorless wheatsheaf calcite crystals on matrix, from Iraí, Rio Grande do Sul, Brazil
Rhombohedrons of calcite that appear almost as books of petals, piled up 3-dimensionally on the matrix, from Eastern Europe Calcite-Dolomite-Gypsum-159389.jpg
Rhombohedrons of calcite that appear almost as books of petals, piled up 3-dimensionally on the matrix, from Eastern Europe
Sky blue, prismatic crystals of celestine from Majunga, Madagascar Celestine-d06-182a.jpg
Sky blue, prismatic crystals of celestine from Majunga, Madagascar
Pocket cavity of small chrysocolla stalactites from Ray Mine, Scott Mountain area, Mineral Creek District, Arizona, USA Chrysocolla-230109.jpg
Pocket cavity of small chrysocolla stalactites from Ray Mine, Scott Mountain area, Mineral Creek District, Arizona, USA
Cinnabar on dolomite Cinnabar on Dolomite.jpg
Cinnabar on dolomite
Varieties that are not valid species:

D

The slightly misshapen octahedral shape of this rough diamond crystal in matrix is typical of the mineral Rough diamond.jpg
The slightly misshapen octahedral shape of this rough diamond crystal in matrix is typical of the mineral
Varieties that are not valid species:


E

Emerald on quartz, from Carnaiba Mine, Pindobacu, Campo Formoso ultramafic complex, Bahia, Brazil Emeraude, quartz 2.jpg
Emerald on quartz, from Carnaiba Mine, Pindobaçu, Campo Formoso ultramafic complex, Bahia, Brazil
Varieties that are not valid species:

F

Translucent fluorapophyllit-(K) crystal and stilbite, from Jalgaon District, Maharashtra, India Fluorapophyllite-Stilbite-Ca-indi-94b.jpg
Translucent fluorapophyllit-(K) crystal and stilbite, from Jalgaon District, Maharashtra, India
Deep green isolated fluorite crystal showing cubic and octahedral faces, set upon a micaceous matrix 3192M-fluorite1.jpg
Deep green isolated fluorite crystal showing cubic and octahedral faces, set upon a micaceous matrix
Varieties that are not valid species:

G

Garnet Garnet Andradite20.jpg
Garnet
Gold vein stockwork in limonite, from Gold Flake Vein, Farncomb Hill, Breckenridge Mining District, Summit County, Colorado, USA Gold vein stockwork in limonite (Gold Flake Vein, Farncomb Hill, near Breckenridge, Colorado, USA) 3 (17078770851).jpg
Gold vein stockwork in limonite, from Gold Flake Vein, Farncomb Hill, Breckenridge Mining District, Summit County, Colorado, USA
Varieties that are not valid species:

H

Brazilian trigonal hematite crystals WLA hmns Hematite.jpg
Brazilian trigonal hematite crystals
Heulandite Heulandite-Celadonite-191727.jpg
Heulandite
Hubnerite and quartz Hubnerite-Quartz-denv08-32a.jpg
Hübnerite and quartz
Varieties that are not valid species:

I

Inyoite from Monte Azul deposit, Sijes, Salta, Argentina Inyoite-Meyerhofferite-146744.jpg
Inyoite from Monte Azul deposit, Sijes, Salta, Argentina
Varieties that are not valid species:

J

Benitoite (blue), joaquinite-(Ce) (brown) and neptunite (dark red) on natrolite (white), from Dallas Gem Mine area, San Benito River headwaters area, New Idria District, Diablo Range, San Benito Co., California, USA Benitoite, neptunite, joaquinite-(Ce) sur natrolite et serpentine (USA) 2.jpg
Benitoite (blue), joaquinite-(Ce) (brown) and neptunite (dark red) on natrolite (white), from Dallas Gem Mine area, San Benito River headwaters area, New Idria District, Diablo Range, San Benito Co., California, USA
Varieties that are not valid species:

K

Kainosite-(Y) from the Amphibolite quarry, Haslach, Black Forest, Baden-Wurttemberg, Germany Kainosite-(Y)-tuc1051a.jpg
Kainosite-(Y) from the Amphibolite quarry, Haslach, Black Forest, Baden-Württemberg, Germany
Krohnkite from Cuquicamata Mine, Chuquicamata District, Calama, El Loa Province, Antofagasta Region, Chile Krohnkite-21581.jpg
Kröhnkite from Cuquicamata Mine, Chuquicamata District, Calama, El Loa Province, Antofagasta Region, Chile
Varieties that are not valid species:

L

Langite from Elsass, France Langite-47272.jpg
Langite from Elsass, France
Legrandite on limonite Legrandite, limonite 1100.1.2839.jpg
Legrandite on limonite
Liddicoatite on quartz and feldspar Liddicoatite, quartz, feldspath 300-4-0983.JPG
Liddicoatite on quartz and feldspar
Varieties that are not valid species:

M

Magnetite from Speen Ghar, Nangarhar Province, Afghanistan Magnetite-170591.jpg
Magnetite from Speen Ghar, Nangarhar Province, Afghanistan
Manganite from Ilfeld, Thuringia, Germany Manganite-180085.jpg
Manganite from Ilfeld, Thuringia, Germany
Mesolite at the Carnegie Museum of Natural History, Pittsburgh, Pennsylvania, USA Mesolite.jpg
Mesolite at the Carnegie Museum of Natural History, Pittsburgh, Pennsylvania, USA
Mimetite on limonite matrix Mimetite-145027.jpg
Mimetite on limonite matrix
Varieties that are not valid species:

N

Needles of natrolite on deep pink inesite Natrolite-Inesite-21148.jpg
Needles of natrolite on deep pink inesite
Neptunite from California, USA Neptunite, benitoite, joaquinite-(Ce) sur natrolite et serpentine (USA) 2.jpg
Neptunite from California, USA
Varieties that are not valid species:

O

Boulder opal, Carisbrooke Station near Winton, Queensland, Australia Boulder Opal.jpg
Boulder opal, Carisbrooke Station near Winton, Queensland, Australia
Varieties that are not valid species:

P

Paravauxite and sigloite crystals associated with micro crystallized iron-stained wavellite needles on matrix Paravauxite-Sigloite-251012.jpg
Paravauxite and sigloite crystals associated with micro crystallized iron-stained wavellite needles on matrix
Pectolite from Paterson, Passaic County, New Jersey, USA Pectolite-54540.jpg
Pectolite from Paterson, Passaic County, New Jersey, USA
Phosphophyllite from Cerro de Potosi, Potosi Department, Bolivia Phosphophyllite-359315.jpg
Phosphophyllite from Cerro de Potosí, Potosí Department, Bolivia
Pyrrhotite on quartz Pyrrhotite-Quartz-kw-tcq03a.jpg
Pyrrhotite on quartz
Varieties that are not valid species:

Q

Quartz Quartz oisan.jpg
Quartz

R

Crystals of cherry red ruby in matrix Corundum-winza-17d.jpg
Crystals of cherry red ruby in matrix
Rock crystal Quarz 01.JPG
Rock crystal
Varieties that are not valid species:

S

Acicular colorless scolecite crystals in a group with pale green apophyllite and very light pink stilbite Scolecite, Apophyllite, Stilbite-450733.jpg
Acicular colorless scolecite crystals in a group with pale green apophyllite and very light pink stilbite
Gypsum (selenite variety): Santa Eulalia District, Chihuahua, Mexico Gypse-selenite 3.jpeg
Gypsum (selenite variety): Santa Eulalia District, Chihuahua, Mexico
Serandite clusters from Poudrette quarry, Mont Saint-Hilaire, Monteregie, Quebec, Canada Serandite-Aegirine-20264.jpg
Serandite clusters from Poudrette quarry, Mont Saint-Hilaire, Montérégie, Québec, Canada
Botryoidal balls of shattuckite, from Otjikotu, Kaokoveld, Kunene, Namibia Shattuckite-k-123a.jpg
Botryoidal balls of shattuckite, from Otjikotu, Kaokoveld, Kunene, Namibia
Ball of stepped stannite crystals flanked by splaying GEM quartzes and golden chalcopyrite at its upper edge, from Yaogangxian Mine, Yizhang County, Chenzhou Prefecture, Hunan Province, China Stannite-Chalcopyrite-Quartz-168837.jpg
Ball of stepped stannite crystals flanked by splaying GEM quartzes and golden chalcopyrite at its upper edge, from Yaogangxian Mine, Yizhang County, Chenzhou Prefecture, Hunan Province, China
Varieties that are not valid species:

T

Crystal of titanite with adularia and minor clinochlore on matrix Titanite-Adularia-Clinochlore-275128.jpg
Crystal of titanite with adularia and minor clinochlore on matrix
Fluorite crystal sitting beside a glassy, dark green tourmaline crystal, which itself sits atop a green tourmaline of a lighter color. All sit on a bed of sparkly, bladed stark white albite Albite-Fluorite-jmix08-19a.jpg
Fluorite crystal sitting beside a glassy, dark green tourmaline crystal, which itself sits atop a green tourmaline of a lighter color. All sit on a bed of sparkly, bladed stark white albite
Crystals of turquoise, from Copper Cities Mine, Globe-Miami District, Arizona, USA Turquoise, pyrite, quartz 300-4-FS 1.jpeg
Crystals of turquoise, from Copper Cities Mine, Globe-Miami District, Arizona, USA
Varieties that are not valid species:

U

Crystals of tourmaline (uvite variety) on quartz, from Pomba pit, Serra das Eguas, Brumado, Bahia, Brazil Uvite sur quartz (Bresil) 1.JPG
Crystals of tourmaline (uvite variety) on quartz, from Pomba pit, Serra das Éguas, Brumado, Bahia, Brazil

V

Vanadinite from the Mibladen Mining District, Morocco Vanadinite, barytine 4.jpeg
Vanadinite from the Mibladen Mining District, Morocco

W

Deep green balls of wavellite in exposed pocket, from Mauldin Mountain Quarries, Montgomery County, Arkansas, USA Wavellite-162460.jpg
Deep green balls of wavellite in exposed pocket, from Mauldin Mountain Quarries, Montgomery County, Arkansas, USA

X

Radial fibrous inesite and xonotlite from Northern Cape Province, South Africa Xonotlite-Inesite-21179.jpg
Radial fibrous inesite and xonotlite from Northern Cape Province, South Africa

Y

Yugawaralite crystals in a sheltered vug, from Jalgaon District, Maharashtra, India Yugawaralite-pkn45b.jpg
Yugawaralite crystals in a sheltered vug, from Jalgaon District, Maharashtra, India
Varieties that are not valid species:

Z

Zeolite with heulandite on quartz Goosecreekite-Heulandite-Ca-Quartz-indi-41a.jpg
Zeolite with heulandite on quartz
Zircon from Gilgit, Pakistan Zircon-dtn1a.jpg
Zircon from Gilgit, Pakistan
Varieties that are not valid species:

See also

Related Research Articles

<span class="mw-page-title-main">Mineral</span> Crystalline chemical element or compound formed by geologic processes

In geology and mineralogy, a mineral or mineral species is, broadly speaking, a solid substance with a fairly well-defined chemical composition and a specific crystal structure that occurs naturally in pure form.

<span class="mw-page-title-main">Amphibole</span> Group of inosilicate minerals

Amphibole is a group of inosilicate minerals, forming prism or needlelike crystals, composed of double chain SiO
4
tetrahedra, linked at the vertices and generally containing ions of iron and/or magnesium in their structures. Its IMA symbol is Amp. Amphiboles can be green, black, colorless, white, yellow, blue, or brown. The International Mineralogical Association currently classifies amphiboles as a mineral supergroup, within which are two groups and several subgroups.

<span class="mw-page-title-main">Actinolite</span> Mineral

Actinolite is an amphibole silicate mineral with the chemical formula Ca2(Mg4.5–2.5Fe2+0.5–2.5)Si8O22(OH)2.

<span class="mw-page-title-main">Amphibolite</span> Metamorphic rock type

Amphibolite is a metamorphic rock that contains amphibole, especially hornblende and actinolite, as well as plagioclase feldspar, but with little or no quartz. It is typically dark-colored and dense, with a weakly foliated or schistose (flaky) structure. The small flakes of black and white in the rock often give it a salt-and-pepper appearance.

<span class="mw-page-title-main">Chrysotile</span> The most commonly encountered form of asbestos

Chrysotile or white asbestos is the most commonly encountered form of asbestos, accounting for approximately 95% of the asbestos in the United States and a similar proportion in other countries. It is a soft, fibrous silicate mineral in the serpentine subgroup of phyllosilicates; as such, it is distinct from other asbestiform minerals in the amphibole group. Its idealized chemical formula is Mg3(Si2O5)(OH)4. The material has physical properties which make it desirable for inclusion in building materials, but poses serious health risks when dispersed into air and inhaled.

<span class="mw-page-title-main">Tremolite</span> Amphibole, double chain inosilicate mineral

Tremolite is a member of the amphibole group of silicate minerals with composition: Ca2(Mg5.0-4.5Fe2+0.0-0.5)Si8O22(OH)2. Tremolite forms by metamorphism of sediments rich in dolomite and quartz. Tremolite forms a series with actinolite and ferro-actinolite. Pure magnesium tremolite is creamy white, but the color grades to dark green with increasing iron content. It has a hardness on Mohs scale of 5 to 6. Nephrite, one of the two minerals known as the gemstone jade, is a green variety of tremolite.

<span class="mw-page-title-main">Diopside</span> Pyroxene mineral

Diopside is a monoclinic pyroxene mineral with composition MgCaSi
2
O
6
. It forms complete solid solution series with hedenbergite and augite, and partial solid solutions with orthopyroxene and pigeonite. It forms variably colored, but typically dull green crystals in the monoclinic prismatic class. It has two distinct prismatic cleavages at 87 and 93° typical of the pyroxene series. It has a Mohs hardness of six, a Vickers hardness of 7.7 GPa at a load of 0.98 N, and a specific gravity of 3.25 to 3.55. It is transparent to translucent with indices of refraction of nα=1.663–1.699, nβ=1.671–1.705, and nγ=1.693–1.728. The optic angle is 58° to 63°.

<span class="mw-page-title-main">Silicate mineral</span> Rock-forming minerals with predominantly silicate anions

Silicate minerals are rock-forming minerals made up of silicate groups. They are the largest and most important class of minerals and make up approximately 90 percent of Earth's crust.

<span class="mw-page-title-main">Cummingtonite</span> Silicate mineral

Cummingtonite is a metamorphic amphibole with the chemical composition (Mg,Fe2+
)
2
(Mg,Fe2+
)
5
Si
8
O
22
(OH)
2
, magnesium iron silicate hydroxide.

<span class="mw-page-title-main">Lamprophyre</span> Ultrapotassic igneous rocks

Lamprophyres are uncommon, small-volume ultrapotassic igneous rocks primarily occurring as dikes, lopoliths, laccoliths, stocks, and small intrusions. They are alkaline silica-undersaturated mafic or ultramafic rocks with high magnesium oxide, >3% potassium oxide, high sodium oxide, and high nickel and chromium.

<span class="mw-page-title-main">Oxide mineral</span> Class of minerals containing oxygen

The oxide mineral class includes those minerals in which the oxide anion (O2−) is bonded to one or more metal alloys. The hydroxide-bearing minerals are typically included in the oxide class. Minerals with complex anion groups such as the silicates, sulfates, carbonates and phosphates are classed separately.

<span class="mw-page-title-main">Metamorphic facies</span> Set of mineral assemblages in metamorphic rocks formed under similar pressures and temperatures

A metamorphic facies is a set of mineral assemblages in metamorphic rocks formed under similar pressures and temperatures. The assemblage is typical of what is formed in conditions corresponding to an area on the two dimensional graph of temperature vs. pressure. Rocks which contain certain minerals can therefore be linked to certain tectonic settings, times and places in the geological history of the area. The boundaries between facies are wide because they are gradational and approximate. The area on the graph corresponding to rock formation at the lowest values of temperature and pressure is the range of formation of sedimentary rocks, as opposed to metamorphic rocks, in a process called diagenesis.

This list gives an overview of the classification of minerals (silicates) and includes mostly International Mineralogical Association (IMA) recognized minerals and its groupings. This list complements the List of minerals recognized by the International Mineralogical Association series of articles and List of minerals. Rocks, ores, mineral mixtures, non-IMA approved minerals and non-named minerals are mostly excluded.

Georgius Agricola is considered the 'father of mineralogy'. Nicolas Steno founded the stratigraphy, the geology characterizes the rocks in each layer and the mineralogy characterizes the minerals in each rock. The chemical elements were discovered in identified minerals and with the help of the identified elements the mineral crystal structure could be described. One milestone was the discovery of the geometrical law of crystallization by René Just Haüy, a further development of the work by Nicolas Steno and Jean-Baptiste L. Romé de l'Isle. Important contributions came from some Saxon "Bergraths"/ Freiberg Mining Academy: Johann F. Henckel, Abraham Gottlob Werner and his students. Other milestones were the notion that metals are elements too and the periodic table of the elements by Dmitri Ivanovich Mendeleev. The overview of the organic bonds by Kekulé was necessary to understand the silicates, first refinements described by Bragg and Machatschki; and it was only possibly to understand a crystal structure with Dalton's atomic theory, the notion of atomic orbital and Goldschmidt's explanations. Specific gravity, streak and X-ray powder diffraction are quite specific for a Nickel-Strunz identifier. Nowadays, non-destructive electron microprobe analysis is used to get the empirical formula of a mineral. Finally, the International Zeolite Association (IZA) took care of the zeolite frameworks.

<span class="mw-page-title-main">Subduction zone metamorphism</span> Changes of rock due to pressure and heat near a subduction zone

A subduction zone is a region of the Earth's crust where one tectonic plate moves under another tectonic plate; oceanic crust gets recycled back into the mantle and continental crust gets produced by the formation of arc magmas. Arc magmas account for more than 20% of terrestrially produced magmas and are produced by the dehydration of minerals within the subducting slab as it descends into the mantle and are accreted onto the base of the overriding continental plate. Subduction zones host a unique variety of rock types formed by the high-pressure, low-temperature conditions a subducting slab encounters during its descent. The metamorphic conditions the slab passes through in this process generates and alters water bearing (hydrous) mineral phases, releasing water into the mantle. This water lowers the melting point of mantle rock, initiating melting. Understanding the timing and conditions in which these dehydration reactions occur, is key to interpreting mantle melting, volcanic arc magmatism, and the formation of continental crust.