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|competition= December 2014
 
|competition= December 2014
 
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'''Zircon Titanium Geothermometry''', or "Ti-in-zircon [[Geothermometry]]" is a technique by which the crystallization temperature of a [[zircon]] crystal can be estimated by the amount of titanium atoms found in the crystal lattice. Zircon is a useful mineral due to its abundance in the Earth's crust, its ability to incorporate various [[radioactive]] and nonradioactive isotopes, its durability, and its resistance to isotopic diffusion.<ref name="Watson Wark Thomas 2006">Watson, E. B., D. A. Wark, & J. B. Thomas, 2006, Crystallization thermometers for zircon and rutile: Contributions to Mineral Petrology, vol. 151, pp. 413–433. doi:10.1007/s00410-006-0068-5</ref> In zircon crystals, [[Titanium]] is commonly incorporated, replacing similarly charged [[Zirconium]] and [[Silica]] atoms. This process is relatively unaffected by pressure and highly temperature dependent, with the amount of Ti incorporated rising exponentially with temperature,<ref name="Watson Wark Thomas 2006" /><ref name="Watson and Harrison 2005">Watson, E. B., & T. M. Harrison, 2005, Zircon Thermometer Reveals Minimum Melting Conditions on Earliest Earth: Science Magazine, vol. 308, pp. 841–843. doi:10.1126/science.1110873</ref> making this an accurate geothermometry method. This method is extremely useful, as it can be combined with radiometric dating techniques that are commonly used with zircon crystals (see [[Uranium-lead dating]]), to correlate quantitative temperature measurements with specific absolute ages.
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'''Zircon Titanium Geothermometry''', or "Ti-in-zircon [[Geothermometry]]" is a technique by which the crystallization temperature of a [[zircon]] crystal can be estimated by the amount of titanium atoms found in the crystal lattice. Zircon is a useful mineral due to its abundance in the Earth's [[crust]], its ability to incorporate various [[radioactive]] and nonradioactive isotopes, its durability, and its resistance to isotopic diffusion.<ref name="Watson Wark Thomas 2006">Watson, E. B., D. A. Wark, & J. B. Thomas, 2006, Crystallization thermometers for zircon and rutile: Contributions to Mineral Petrology, vol. 151, pp. 413–433. doi:10.1007/s00410-006-0068-5</ref> In zircon crystals, [[Titanium]] is commonly incorporated, replacing similarly charged [[Zirconium]] and [[Silica]] atoms. This process is relatively unaffected by pressure and highly temperature dependent, with the amount of Ti incorporated rising exponentially with temperature,<ref name="Watson Wark Thomas 2006" /><ref name="Watson and Harrison 2005">Watson, E. B., & T. M. Harrison, 2005, Zircon Thermometer Reveals Minimum Melting Conditions on Earliest Earth: Science Magazine, vol. 308, pp. 841–843. doi:10.1126/science.1110873</ref> making this an accurate geothermometry method. This method is extremely useful, as it can be combined with radiometric dating techniques that are commonly used with zircon crystals (see [[Uranium-lead dating]]), to correlate quantitative temperature measurements with specific absolute ages.
    
==Zircon==
 
==Zircon==

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