Mines with Hydrothermal Deposits
104 linked mines · Geology: Hydrothermal Deposits
Listed only where MineArchive's own research gives a reasonable evidential basis for the connection — not every mine where this geology might plausibly apply.
| Mine | Region | Worked | Commodities | Connection |
|---|---|---|---|---|
| Alport Mines | Derbyshire | 17th century–mid-1800s (mining); 1890s (smelting) | Lead | (well documented example) The mine's own recorded geology explicitly describes lead-bearing veins within the Peak District orefield's Carboniferous limestone. |
| Alva Silver Mine (Silver Glen) | Clackmannanshire | 1712–1716 (main bonanza); cobalt worked intermittently later | Silver, Cobalt | (well documented example) The mine's own recorded geology explicitly describes a hydrothermal vein system yielding native silver. |
| Arkendale Mine | North Yorkshire | In the returns from 1882–1905 | Lead | (well documented example) The Arkengarthdale lead was deposited from mineralising fluids rising along faults and joints through the Carboniferous sequence of the dales. |
| Ballacorkish Mine | Isle of Man | worked before 1819 (earlier phase, abandoned); revived 1862–1895 | Lead, Silver, Zinc, Ochre | (well documented example) The mine's own recorded geology explicitly describes lead- and zinc-bearing veins of the Manx mineralised belt. |
| Bedford United Mine | Devon | 1841–1890 (main working); arsenic to 1920s | Copper, Tin, Arsenic, Tungsten | (well documented example) The mine's own recorded geology explicitly describes copper-bearing lodes of the Tamar Valley orefield. |
| Blakethwaite Mine | North Yorkshire | 1819 (mine); 1821 (smelt mill)–1878 | Lead | (well documented example) The mine's own recorded geology explicitly describes lead-bearing veins of the northern Pennine orefield. |
| Bog Mine | Shropshire | 1730s–1924 | Lead, Zinc, Barite | (well documented example) The mine's own recorded geology explicitly describes lead-bearing veins in the Shropshire lead-mining district. |
| Botallack Mine | Cornwall | 1500s–1895 | Tin, Lead, Cobalt, Copper, Arsenic, Silver | (well documented example) Botallack's tin, copper and arsenic lodes are hydrothermal, formed from fluids driven by the cooling Land's End granite. |
| Brandelhow Mine | Cumbria | worked by the 1560s (Elizabethan); reopened on a larger scale in 1819–early 1891 | Lead, Copper, Silver, Graphite | (well documented example) The mine's own recorded geology explicitly describes lead-, copper-, silver- and graphite-bearing veins within a hydrothermal orefield. |
| Britannia Copper Mine | Gwynedd | First recorded around 1800–1916 | Copper | (well documented example) Copper worked from mineralised veins in the volcanic rocks of the Snowdon massif. |
| Brownley Hill Mine | Cumbria | worked from the early 1700s–1966 | Lead, Silver, Zinc | (well documented example) The mine's own recorded geology explicitly describes the hydrothermal Brownley Hill Vein of the northern Pennine orefield. |
| CB Mine | North Yorkshire | Bathurst family acquired mineral rights 1654–1883 (CB Mining Company) | Lead | (well documented example) The mine's own recorded geology explicitly describes hydrothermal lead veins of the northern Pennine orefield. |
| Cae Coch Sulphur Mine | Conwy | 1607–1942 | Pyrite | (historical documentary reference) One of the competing readings of the deposit is as a kuroko-type volcanogenic exhalative body, and hollow pyrite tubes in the top half-metre of the bed have been interpreted as fossilised black smokers. The link is to that contested interpretation, not a settled classification — the sulphur-isotope and cobalt-nickel evidence points away from a volcanogenic origin. |
| Cambokeels Mine | County Durham | 1868 (lead, Beaumont Company); reopened 1905 for fluorspar–1989 | Fluorspar, Lead | (well documented example) The mine's own recorded geology explicitly describes the hydrothermal Slitt Vein of the northern Pennine orefield. |
| Carn Galver Mine | Cornwall | worked early 19th century (three main periods: to 1840; 1851-1869; 1871-1875)–1875 | Tin | (well documented example) The mine's own recorded geology explicitly describes a hydrothermal tin lode within the Cornubian orefield. |
| Chewton Mineries | Somerset | 1541 (first documented); probably earlier–1883 | Lead | (well documented example) The mine's own recorded geology explicitly describes lead veins within the Triassic Dolomitic Conglomerate of the Mendip orefield. |
| Coalcleugh | Northumberland | 17th century–1878 (Beaumont); reworked to 1921 | Lead, Zinc, Fluorspar | (well documented example) The mine's own recorded geology explicitly describes lead- and zinc-bearing veins of the Alston Block, part of the northern Pennine orefield. |
| Cobscar Mill | North Yorkshire | built 1762–c. 1830 (main working); refurbished 1848 | Lead, Zinc | (well documented example) The mine's own recorded geology explicitly describes hydrothermal lead veins of the northern Pennine orefield. |
| Cook's Kitchen Mine | Cornwall | worked for copper by early 18th century; tin from mid-19th century–1913 | Copper, Tin, Arsenic | (well documented example) The mine's own recorded geology explicitly describes copper and tin lodes within the hydrothermal Cornubian orefield. |
| Craig-y-Mwyn Mine | Powys | 1692–19th century (exact final date unrecorded) | Lead | (well documented example) The mine's own recorded geology explicitly describes a lead vein within the hydrothermal Central Wales orefield. |
| Cwm Elan Mine | Powys | 1796 (vein discovered); main working from 1871–September 1877 | Lead, Zinc | (well documented example) The mine's own recorded geology explicitly describes a lead- and zinc-bearing vein within the hydrothermal Central Wales orefield. |
| Diana Maria Mine | County Durham | 2017 (opencast); 2018 (underground)–Still active | Fluorspar | (well documented example) The fluorite belongs to the Northern Pennine Orefield's mineralisation, emplaced in the Carboniferous limestone sequence by circulating hot fluids rather than by any magmatic body at the site. |
| Ding Dong Mine | Cornwall | documented from early 17th century; possibly prehistoric–1877 (main working); 1912-1915 and 1928 reopening attempts | Tin, Copper | (well documented example) The mine's own recorded geology explicitly describes tin- and copper-bearing lodes of the Land's End granite, part of the Cornubian orefield. |
| Dovegang Mine | Derbyshire | already 'ancient' by 1652–gradually exhausted through the 19th century | Lead | (well documented example) The mine's own recorded geology explicitly describes a hydrothermal lead vein system of the Derbyshire orefield. |
| Dowgang Mine | Cumbria | Hushing by 1773; in the returns from 1882–Standing by 1902 | Lead, Zinc | (well documented example) Dowgang worked the North Pennine orefield, whose lead and zinc were deposited from mineralising fluids rising along faults through the Carboniferous sequence. |
| Drws-y-Coed Copper Mine | Gwynedd | worked since medieval times; recorded 1284; active mining from 1761/1768–1903 | Copper | (well documented example) The mine's own recorded geology explicitly describes a hydrothermal copper mineralised system hosted in Cambrian rocks. |
| East Wheal Rose | Cornwall | lead discovered 1812; mine established 1834–1886 | Lead, Silver, Zinc | (well documented example) The mine's own recorded geology explicitly describes lead-bearing lodes within the hydrothermal Cornubian orefield. |
| Ecton Copper Mines | Staffordshire | Bronze Age–1891 | Copper, Lead, Zinc | (well documented example) Exploits near-vertical, pipe-like hydrothermal copper-lead-zinc mineralisation, a less common deposit shape than a simple vein. |
| Esgair Mwyn Mine | Ceredigion | ancient origins (unknown date); rediscovered 1746–1994 (final spoil-reprocessing closure); main lead working ended 1927 | Lead, Copper, Silver, Zinc | (well documented example) The mine's own recorded geology explicitly describes a lead-, silver-, zinc- and copper-bearing vein within the hydrothermal Central Wales orefield. |
| Excelsior Mine | Cornwall | early 1850s–1946 (mining); 1938 (tunnel driving) | Tin, Copper, Tungsten | (well documented example) The mine's own recorded geology explicitly describes tin- and copper-bearing lodes of the Cornubian granite-related orefield. |
| Foss Mine | Perth and Kinross | discovered late 1970s; production from early 1980s–2021 | Barite | (well documented example) The mine's own recorded geology explicitly describes a syn-sedimentary, exhalative hydrothermal baryte deposit. |
| Frank Mills Mine | Devon | 1847 (search for northern lode extension); main working from 1854–1880 | Lead, Silver, Barite, Fluorspar, Iron | (well documented example) The mine's own recorded geology explicitly describes a hydrothermal, granite-related silver-lead vein system. |
| Geevor Tin Mine | Cornwall | 1911–1990 | Tin, Copper | (well documented example) Geevor's cassiterite-bearing veins are hydrothermal, formed in and around granite intruded into Devonian killas. |
| Glasdir Mine | Gwynedd | worked from c. 1852 (opencast); Elmore family ownership from 1896–1915 | Copper, Silver, Gold | (well documented example) The mine's own recorded geology explicitly describes copper sulphide mineralisation of the Dolgellau gold belt. |
| Glengonnar | South Lanarkshire | 1239 (earliest record); worked from 16th century for gold–1940 | Lead, Silver, Gold | (well documented example) The mine's own recorded geology explicitly describes lead-bearing veins of the Leadhills-Wanlockhead orefield. |
| Golden Dagger Mine | Devon | worked from 1879–November 1930 (last commercially worked mine on Dartmoor) | Tin | (well documented example) The mine's own recorded geology explicitly describes granite-related hydrothermal tin mineralisation of the Dartmoor batholith. |
| Goldscope Mine | Cumbria | 1564–late 19th century | Copper, Lead, Silver, Gold | (well documented example) The mine's own recorded geology explicitly describes copper- and lead-bearing hydrothermal veins. |
| Great Dowgas Mine | Cornwall | c. 1719–1913 | Tin, Copper, Cobalt, Nickel | (well documented example) The lodes are described as filled mainly with quartz and pyrite, with cassiterite occurring sporadically — the mineral assemblage and irregular tin distribution characteristic of a hydrothermal vein deposit. |
| Great Orme Copper Mines | Conwy | c. 1700 BC–c. 600 BC (prehistoric phase); reworked 17th-19th centuries | Copper, Lead | (well documented example) Hydrothermal fluids moving along faults and fractures deposited the copper veins worked here. |
| Great Work Mine | Cornwall | By 1538–1939 | Tin, Copper, Lead | (well documented example) The mine's cassiterite-bearing lodes, worked within the Godolphin-Tregonning granite with copper and minor lead, are a documented example of granite-related hydrothermal tin-copper mineralisation of the type this record describes. |
| Greenburn Mine | Cumbria | worked from late 17th century; intensive from c. 1845–c. 1885 (main working); ceased entirely by 1940 | Copper | (well documented example) The mine's own recorded geology explicitly describes a hydrothermal copper mineralised system associated with the Borrowdale Volcanic Group. |
| Greenside Mine | Cumbria | 1825–1962 | Lead, Silver | (well documented example) Worked a mineral vein deposited by hydrothermal fluids at 110-130°C during the Carboniferous period, filling a north-south fault. |
| Grogwynion Mine | Ceredigion | worked by 1744 (probably earlier)–1889 | Lead | (well documented example) The mine's own recorded geology explicitly describes a lead vein within the hydrothermal Central Wales orefield. |
| Groverake Mine | County Durham | Ironstone from 1819; lead and later fluorspar into the 20th century–1999 | Fluorspar, Lead, Iron | (well documented example) Groverake's lead and fluorspar came from Northern Pennine Orefield hydrothermal veins, zoned around the concealed Weardale Granite as a heat source. |
| Gunnislake Clitters Mine | Cornwall | c. 1820–1919 (working ceased); the sett passed to the Duchy of Cornwall | Copper, Tin, Arsenic, Tungsten | (well documented example) The record turns on lodes that gave copper and tin first and arsenic and tungsten afterwards, the sequence of products following what the mineralisation yielded as the metal ores were exhausted. |
| Hafna Mine | Conwy | Early workings of uncertain date–1913 (the mill worked on to about 1915) | Lead, Zinc, Pyrite | (well documented example) The Gwydir lead-zinc mineralisation was deposited from hot fluids moving through fractures in the Ordovician sequence, with quartz and calcite gangue accompanying the ore minerals. |
| Herland Mine | Cornwall | worked from at least 1726–1874 (final closure, as Rosewarne and Herland United) | Copper, Silver | (well documented example) The mine's own recorded geology explicitly describes granite-related hydrothermal copper mineralisation of west Cornwall. |
| Herodsfoot Mine | Cornwall | early 1700s (intermittent); main working from 1845–1884 | Lead, Silver | (well documented example) The mine's own recorded geology explicitly describes silver-lead lodes within the hydrothermal, granite-related Cornubian orefield. |
| Hilton and Scordale Mines | Cumbria | Worked by the 18th century; London Lead Company from 1824–Work ceased after 1919; lease finally abandoned 1963 | Lead, Barite, Fluorspar, Witherite | (well documented example) The Scordale veins and flats belong to the northern Pennine orefield, deposited from mineralising fluids in Carboniferous limestone. |
| Killhope Lead Mine | County Durham | 1818–1910 | Lead, Zinc | (well documented example) The mine's own recorded geology explicitly describes hydrothermal lead veins of the northern Pennine orefield. |
| King Edward Mine (South Condurrow) | Cornwall | South Condurrow reopened 1844–South Condurrow closed 1896 | Tin, Copper | (well documented example) The mine's own recorded geology explicitly describes granite-related hydrothermal tin and copper mineralisation of the Camborne-Redruth district. |
| Ladywash Mine | Derbyshire | sough begun 1714; mine started 1740; reworked from 1936/1950s–1979 | Lead, Fluorspar | (well documented example) The mine's own recorded geology explicitly describes the hydrothermal Hucklow Edge vein system of the Derbyshire orefield. |
| Levant Mine | Cornwall | 1787–1930 | Tin, Arsenic, Copper | (well documented example) Levant's tin and copper lodes are hydrothermal, formed from fluids driven by the cooling Land's End granite. |
| Llywernog Mine | Ceredigion | 1742 (vein discovered); worked from 1770s–1891 (lead); 1911 (zinc revival) | Lead, Silver, Zinc | (well documented example) The mine's own recorded geology explicitly describes a lead- and silver-bearing vein within the Cambrian Mountains orefield. |
| Loggerheads | Denbighshire | worked from at least the 18th century–19th century (exact closure date unclear); site now a country park | Lead, Zinc | (well documented example) The mine's own recorded geology explicitly describes hydrothermal lead and zinc mineralisation within karstic limestone. |
| Longstone Edge | Derbyshire | worked from at least the 18th century (lead veins)–No single closure date; working continued into the 2000s | Fluorspar, Lead, Barite | (well documented example) The mine's own recorded geology explicitly describes lead, fluorspar and barytes mineralisation deposited by a hydrothermal system. |
| Middleton Tyas Copper Mine | North Yorkshire | worked sporadically from the 15th century; main phase mid-18th century–mid-18th century (exact date unrecorded) | Copper | (well documented example) The mine's own recorded geology explicitly describes richly but patchily mineralised copper veins. |
| Milldam Mine | Derbyshire | Lead mining to 1885; reopened for fluorspar in 1985–Production ceased October 2023; on care and maintenance | Lead, Zinc, Barite, Fluorspar | (well documented example) The South Pennine orefield fluorspar and baryte were deposited from warm basinal brines moving through the limestone, not from any magmatic source. |
| Mount Wellington Mine | Cornwall | 1976–1978 (initial closure) | Tin | (well documented example) The mine's own recorded geology explicitly describes granite-related hydrothermal tin mineralisation of the Gwennap district. |
| Mulreesh Lead Mines | Argyll and Bute | 1360 (earliest evidence); worked intermittently to 1872–1900 | Lead, Silver | (well documented example) The mine's own recorded geology explicitly describes lead-bearing veins formed alongside basalt dykes cutting through limestone. |
| Nant-y-Garw Lead Mine | Powys | 1877 (vein discovered); 1882 (work commenced)–1899 | Lead | (well documented example) The mine's own recorded geology explicitly describes a lead-bearing vein within the Cambrian Mountains orefield. |
| New Consols Mine | Cornwall | worked as Wheal Martha from the 19th century–1953 | Tin, Copper, Arsenic, Lead, Silver | (well documented example) The mine's own recorded geology explicitly describes copper, tin, lead and silver lodes within the hydrothermal Cornubian orefield. |
| New Glencrieff Mine | Dumfries and Galloway | 1718–1958 (main working); reprocessing to early 1960s | Lead, Zinc | (well documented example) The mine's own recorded geology explicitly describes the lead- and zinc-bearing New Glencrieff Vein of the Leadhills-Wanlockhead orefield. |
| Old Gang Mines | North Yorkshire | 18th century–1899-1903 | Lead | (well documented example) The mine's own recorded geology explicitly describes lead-bearing veins of the northern Pennine orefield, the same mineralising system described in this record. |
| Penberthy Croft Mine | Cornwall | 1798–Late 1840s, with a further phase 1881-83 | Tin, Copper, Arsenic, Lead | (well documented example) The lode runs parallel to a quartz-feldspar porphyry elvan dyke, the granite-driven hydrothermal mineralisation typical of west Cornwall, and carries tin, copper and lead minerals together. |
| Pennerley Mine | Shropshire | worked by the 18th century; main phase from 1879-80–1884 (main lead working); baryte worked to 1925 | Lead, Barite | (well documented example) The mine's own recorded geology explicitly describes lead veins within the hydrothermal Shelve orefield. |
| Poldice Mine | Cornwall | by 1512 (documented); certainly worked by the 17th century–1930 | Copper, Tin, Arsenic | (well documented example) The mine's own recorded geology explicitly describes copper and tin lodes within the hydrothermal Cornubian orefield. |
| Priddy (St Cuthbert's) Lead Works | Somerset | AD 49 (Roman)–1908 | Lead, Silver | (well documented example) The mine's own recorded geology explicitly describes lead veins within the Triassic Dolomitic Conglomerate of the Mendip orefield. |
| Rampgill Mine | Cumbria | 1690 (Rampgill Vein discovered)–1949 (Vieille Montagne); some later 20th-century working | Lead, Zinc | (well documented example) The mine's own recorded geology explicitly describes lead- and zinc-bearing structures in the Northern Pennine orefield's Great Limestone. |
| Roman Gravels Mine | Shropshire | worked in the Roman period (c. AD 120)–1895 | Lead | (well documented example) The mine's own recorded geology explicitly describes lead veins within the hydrothermal Shelve orefield. |
| Roughton Gill Mine | Cumbria | 12th century (earliest possible); documented from 1564–17th century (main German-era working); reworked later | Copper, Silver, Zinc, Barite, Lead | (well documented example) The mine's own recorded geology explicitly describes copper- and lead-bearing veins of the Caldbeck Fells. |
| Silver Gill Mine | Cumbria | worked 1020-1200 (archaeologically dated); documented from 1331–worked into the Elizabethan period; final closure date unrecorded | Lead, Copper, Silver | (well documented example) The mine's own recorded geology explicitly describes lead-, copper- and silver-bearing veins within a hydrothermal orefield. |
| Sir Francis Level (Lownathwaite Mine) | North Yorkshire | 1864–1882 | Lead | (well documented example) The mine's own recorded geology explicitly describes the Fairfold Vein as part of the hydrothermal, non-magmatic North Pennine orefield. |
| South Caradon Mine | Cornwall | 1836 (main lode struck); trial working from 1833–1885 | Copper | (well documented example) The mine's own recorded geology explicitly describes copper lodes within the hydrothermal, granite-related Cornubian orefield. |
| South Crofty | Cornwall | 1592–1998 | Tin, Copper | (well documented example) South Crofty is a classic Cornish granite-driven hydrothermal vein system, the mechanism this geology record describes. |
| South Hooe Mine | Devon | 13th century–1885 | Lead, Silver | (well documented example) The mine's own recorded geology explicitly describes silver-bearing lead lodes of the Tamar Valley orefield. |
| Speedwell Cavern | Derbyshire | 1771–1790 | Lead | (well documented example) The mine's own recorded geology explicitly describes a hydrothermal lead-bearing vein in the Castleton orefield. |
| Surrender Mine | North Yorkshire | before 1720–1880 | Lead | (well documented example) The mine's own recorded geology explicitly describes lead-bearing veins of the northern Pennine orefield. |
| Talargoch Mine | Flintshire | documented from 1303; worked continuously from the 1630s–1884 (underground); tip-reworking to 1905 | Lead, Zinc | (well documented example) The mine's geology field explicitly describes non-magmatic, low-temperature hydrothermal lead-zinc mineralisation in Carboniferous limestone, the same style as the Pennine orefield. |
| Tankerville Mine | Shropshire | small-scale working from the early 19th century–May 1884 (main); failed reopenings 1891-93, 1911-13 | Lead, Silver, Zinc, Barite | (well documented example) The mine's own recorded geology explicitly describes hydrothermal lead mineralisation of the Shelve orefield. |
| Threlkeld Quarry and Mine | Cumbria | 1870–1982 | Granite, Lead, Zinc, Barite | (well documented example) The British Geological Survey attributes the district’s lead–zinc mineralisation, Threlkeld included, to periods of hydrothermal activity generated by the Lake District batholith, and assigns the lead–zinc veins an Early Carboniferous age. |
| Tilberthwaite | Cumbria | worked from the late 16th/early 17th century (Elizabethan)–copper mining ceased 1942; slate quarrying continued intermittently to 2001 | Copper, Lead, Slate | (well documented example) The mine's own recorded geology explicitly describes lead and copper mineralisation associated with the Coniston Fault. |
| Tincroft Mine | Cornwall | known by 1680s (as Penhallick Vean & Tyn Croft); tin production from 1865–1921 (South Tincroft) | Copper, Tin | (well documented example) The mine's own recorded geology explicitly describes copper and tin lodes within the hydrothermal Cornubian orefield. |
| Tresavean Mine | Cornwall | 1737–1928 | Copper, Tin, Arsenic | (well documented example) The mine's own recorded geology explicitly describes copper- and tin-bearing lodes of the Cornubian granite-related Camborne-Redruth orefield. |
| Tyndrum Mines | Stirling | 1741 (vein discovered)–1926 | Lead, Silver, Zinc | (well documented example) The mine's own recorded geology explicitly describes lead- and zinc-bearing veins within the hydrothermal Grampian orefield. |
| Vigra Mine | Gwynedd | 1833 (application); worked as copper mine 1825-1845; gold from 1860s–c. 1910 (little work after 1879) | Gold, Copper | (well documented example) The mine's own recorded geology explicitly describes non-granite-related hydrothermal gold mineralisation of the Dolgellau gold belt. |
| Vitifer Mine (Birch Tor and Vitifer) | Devon | documented from 1750 (Vitifer); 1757 (Birch Tor)–1925 | Tin | (well documented example) The mine's own recorded geology explicitly describes tin-bearing veins within the hydrothermal, granite-related Dartmoor orefield. |
| Wheal Agar | Cornwall | By 1883–No reliable closure date has yet been located. | Copper, Tin, Arsenic | (well documented example) The record turns on the mine's returns following the classic Camborne-Redruth sequence, copper and tin together and arsenic added later, from lodes on the belt worked by East Pool, Tincroft and South Crofty. |
| Wheal Basset (Basset Mines) | Cornwall | worked from 1815 (as separate setts); Basset Mines company formed 1896–1918 | Tin, Copper | (well documented example) The mine's own recorded geology explicitly describes tin- and copper-bearing lodes within the hydrothermal Cornubian orefield. |
| Wheal Buller | Cornwall | worked from 1819–1875 (main); failed reworking 1928-1930 | Copper, Tin | (well documented example) The mine's own recorded geology explicitly describes granite-related hydrothermal copper and tin mineralisation of the Camborne-Redruth district. |
| Wheal Edward | Cornwall | worked from 1821 (first returns); reopened 1863–1893 | Copper, Tin, Uranium | (well documented example) The mine's own recorded geology explicitly describes hydrothermal copper and tin lodes within the Cornubian orefield. |
| Wheal Fortune | Cornwall | 1855–1912 | Tin, Copper, Arsenic, Tungsten, Zinc | (well documented example) The mine's own geology field explicitly describes a hydrothermal tin-vein mineralisation phase, sourced to the GCR account: hot fluids following structural weaknesses with the elvan dyke acting as a channel-way. |
| Wheal Friendship | Devon | late 18th century–1925 (surface tribute working to the 1950s) | Copper, Tin, Arsenic, Lead | (well documented example) The mine's own recorded geology explicitly describes copper, tin and arsenic-bearing lodes associated with the Dartmoor granite, part of the Cornubian orefield. |
| Wheal Grenville | Cornwall | 1820s (initial working); productive from 1850s; formal lease 1845–1920 | Tin, Copper | (well documented example) The mine's own recorded geology explicitly describes tin- and copper-bearing lodes on the western extremity of the Great Flat Lode. |
| Wheal Kitty | Cornwall | documented from 1758; consistently worked from 1834–1930 | Tin, Copper, Iron | (well documented example) The mine's own recorded geology explicitly describes tin-, copper- and iron pyrite-bearing lodes within the hydrothermal Cornubian orefield. |
| Wheal Maid | Cornwall | 1782–1870s (mine); site used as a tailings dam 1970s-1980s | Copper, Tin, Arsenic | (well documented example) The mine's own recorded geology explicitly describes granite-related hydrothermal copper mineralisation of the Gwennap district. |
| Wheal Mary Ann | Cornwall | 1845–c. 1875 | Lead, Silver, Fluorspar | (well documented example) Le Neve Foster's 1874 account describes the lode as a fissure vein repeatedly reopened and refilled by successive hydrothermal mineral deposition (cab/chalcedony, quartz, galena, chalybite, fluorspar, calc spar), with a documented paragenetic sequence. |
| Wheal Peevor | Cornwall | sett granted c. 1701; worked from the mid-18th century–1889 (main closure); reopening attempts 1911-18, 1938, 1950s all failed | Tin, Copper, Tungsten | (well documented example) The mine's own recorded geology explicitly describes granite-related hydrothermal copper and tin mineralisation of the Camborne-Redruth district. |
| Wheal Prosper | Cornwall | circa 1860–1866 | Copper, Tin | (well documented example) The mine's own recorded geology explicitly describes the Porthcew lode as part of the hydrothermal, granite-related Cornubian orefield. |
| Wheal Trewavas | Cornwall | by 1834–1846 | Copper | (well documented example) The mine's own recorded geology explicitly describes copper lodes as part of the hydrothermal, granite-related Cornubian orefield. |
| Wheal Uny | Cornwall | worked from c. 1800–1893 | Copper, Tin | (well documented example) The mine's own recorded geology explicitly describes copper and tin lodes within the hydrothermal Cornubian orefield. |
| Wheal Vor | Cornwall | underground working from the 15th century–1911 (last major working); abandoned by 1967 | Tin, Copper | (well documented example) The mine's own recorded geology explicitly describes exceptionally rich tin- and copper-bearing lodes associated with Cornwall's granite, part of the Cornubian orefield. |
| White Grit Mine | Shropshire | old workings recorded 1678; main periods 1830-1848–c. 1870 | Lead | (well documented example) The mine's own recorded geology explicitly describes hydrothermal lead veins within the Shelve orefield. |
| Woodhead Mine | Dumfries and Galloway | 1838–1873 | Lead, Silver | (well documented example) The mine's own recorded geology explicitly describes a hydrothermal lead vein of the Southern Uplands orefield. |
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