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1 Department of Geological Sciences
University of Michigan, Ann Arbor, MI
48109 U.S.A.
E-mail:
skesler{at}umich.edu
Ore-forming (hydrothermal) fluids, consisting largely of H2O,
CO2, and NaCl, formed most of Earth's ore deposits. The fluids
exist as largely unconfined systems in meteoric, seawater, and basinal
settings, or locally and intermittently confined systems in magmatic,
metamorphic, and basinal settings, and they are driven largely by differences
in temperature, elevation or density. Temperatures are highest
(
600°C) in magmatic and lowest in basinal and meteoric
(
100°C) systems. Salinities well above that of seawater are reached
by boiling, evaporation, and evaporite dissolution, largely in magmatic and
basinal systems. Today, research is focused on establishing the concentrations
of metals in these fluids, the volume and duration of hydrothermal flow, and
the links between ore systems and larger, regional fluid systems.
KEYWORDS: ore deposit, hydrothermal fluid, fluid, water
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