Conservative temperature provides more accurate representations of ocean heat content
Conservative Temperature provides a more rigorous and consistent thermodynamic framework for representing ocean properties, such as enthalpy and heat content, by eliminating inconsistencies found when using traditional temperature variables.
The retrieved literature (specifically papers [0], [1], and [9]) supports the use of Conservative Temperature in modern oceanography to improve thermodynamic consistency, enthalpy representation, and calculations of ocean heat content. The remaining papers discuss unrelated topics such as marine biology, paleoceanography, and carbon storage without contradicting the claim.
William R. Young. Dynamic Enthalpy, Conservative Temperature, and the Seawater Boussinesq Approximation. 2010. https://doi.org/10.1175/2009jpo4294.1
Paper [0] utilizes Conservative Temperature within a Boussinesq framework to appropriately remove inert contributions to enthalpy and reveal key energy conversions.
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Trevor J. McDougall, Paul M. Barker, Rainer Feistel, Fabien Roquet. A thermodynamic potential of seawater in terms of Absolute Salinity, Conservative Temperature, and in situ pressure. 2023. https://doi.org/10.5194/os-19-1719-2023
Paper [1] derives a seawater thermodynamic potential based on Conservative Temperature to avoid small numerical inconsistencies present in previous mixed practices.
Trevor McDougall. The new thermodynamic potential of seawater in terms of Conservative Temperature . 2025. https://doi.org/10.5194/egusphere-egu24-2756
Paper [9] presents a new thermodynamic potential using Conservative Temperature that provides a clean separation of thermodynamic properties such as specific volume and sound speed.
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