A lake classification concept for a more accurate global estimate of the dissolved inorganic carbon export from terrestrial ecosystems to inland waters. Engel, F., Farrell, K. J., McCullough, I. M., Scordo, F., Denfeld, B. A., Dugan, H. A., Eyto, E. d., Hanson, P. C., McClure, R. P., Nõges, P., Nõges, T., Ryder, E., Weathers, K. C., & Weyhenmeyer, G. A. The Science of Nature, 105(3-4):25, April, 2018. 00000![A lake classification concept for a more accurate global estimate of the dissolved inorganic carbon export from terrestrial ecosystems to inland waters [link]](https://bibbase.org/img/filetypes/link.svg "link")
Paper doi abstract bibtex The magnitude of lateral dissolved inorganic carbon (DIC) export from terrestrial ecosystems to inland waters strongly influences the estimate of the global terrestrial carbon dioxide (CO2) sink. At present, no reliable number of this export is available, and the few studies estimating the lateral DIC export assume that all lakes on Earth function similarly. However, lakes can function along a continuum from passive carbon transporters (passive open channels) to highly active carbon transformers with efficient in-lake CO2 production and loss. We developed and applied a conceptual model to demonstrate how the assumed function of lakes in carbon cycling can affect calculations of the global lateral DIC export from terrestrial ecosystems to inland waters. Using global data on in-lake CO2 production by mineralization as well as CO2 loss by emission, primary production, and carbonate precipitation in lakes, we estimated that the global lateral DIC export can lie within the range of 0.70+0.27−0.310.70−0.31+0.27 \0.70\_\-0.31\\textasciicircum\+0.27\ to 1.52+1.09−0.901.52−0.90+1.09 \1.52\_\-0.90\\textasciicircum\+1.09\ Pg C yr−1 depending on the assumed function of lakes. Thus, the considered lake function has a large effect on the calculated lateral DIC export from terrestrial ecosystems to inland waters. We conclude that more robust estimates of CO2 sinks and sources will require the classification of lakes into their predominant function. This functional lake classification concept becomes particularly important for the estimation of future CO2 sinks and sources, since in-lake carbon transformation is predicted to be altered with climate change.
@article{engel_lake_2018,
title = {A lake classification concept for a more accurate global estimate of the dissolved inorganic carbon export from terrestrial ecosystems to inland waters},
volume = {105},
issn = {0028-1042, 1432-1904},
url = {https://link.springer.com/article/10.1007/s00114-018-1547-z},
doi = {10.1007/s00114-018-1547-z},
abstract = {The magnitude of lateral dissolved inorganic carbon (DIC) export from terrestrial ecosystems to inland waters strongly influences the estimate of the global terrestrial carbon dioxide (CO2) sink. At present, no reliable number of this export is available, and the few studies estimating the lateral DIC export assume that all lakes on Earth function similarly. However, lakes can function along a continuum from passive carbon transporters (passive open channels) to highly active carbon transformers with efficient in-lake CO2 production and loss. We developed and applied a conceptual model to demonstrate how the assumed function of lakes in carbon cycling can affect calculations of the global lateral DIC export from terrestrial ecosystems to inland waters. Using global data on in-lake CO2 production by mineralization as well as CO2 loss by emission, primary production, and carbonate precipitation in lakes, we estimated that the global lateral DIC export can lie within the range of 0.70+0.27−0.310.70−0.31+0.27 \{0.70\}\_\{-0.31\}{\textasciicircum}\{+0.27\} to 1.52+1.09−0.901.52−0.90+1.09 \{1.52\}\_\{-0.90\}{\textasciicircum}\{+1.09\} Pg C yr−1 depending on the assumed function of lakes. Thus, the considered lake function has a large effect on the calculated lateral DIC export from terrestrial ecosystems to inland waters. We conclude that more robust estimates of CO2 sinks and sources will require the classification of lakes into their predominant function. This functional lake classification concept becomes particularly important for the estimation of future CO2 sinks and sources, since in-lake carbon transformation is predicted to be altered with climate change.},
language = {en},
number = {3-4},
urldate = {2018-07-05},
journal = {The Science of Nature},
author = {Engel, Fabian and Farrell, Kaitlin J. and McCullough, Ian M. and Scordo, Facundo and Denfeld, Blaize A. and Dugan, Hilary A. and Eyto, Elvira de and Hanson, Paul C. and McClure, Ryan P. and Nõges, Peeter and Nõges, Tiina and Ryder, Elizabeth and Weathers, Kathleen C. and Weyhenmeyer, Gesa A.},
month = apr,
year = {2018},
note = {00000},
keywords = {\#nosource},
pages = {25},
}
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A."],"bibdata":{"bibtype":"article","type":"article","title":"A lake classification concept for a more accurate global estimate of the dissolved inorganic carbon export from terrestrial ecosystems to inland waters","volume":"105","issn":"0028-1042, 1432-1904","url":"https://link.springer.com/article/10.1007/s00114-018-1547-z","doi":"10.1007/s00114-018-1547-z","abstract":"The magnitude of lateral dissolved inorganic carbon (DIC) export from terrestrial ecosystems to inland waters strongly influences the estimate of the global terrestrial carbon dioxide (CO2) sink. At present, no reliable number of this export is available, and the few studies estimating the lateral DIC export assume that all lakes on Earth function similarly. However, lakes can function along a continuum from passive carbon transporters (passive open channels) to highly active carbon transformers with efficient in-lake CO2 production and loss. We developed and applied a conceptual model to demonstrate how the assumed function of lakes in carbon cycling can affect calculations of the global lateral DIC export from terrestrial ecosystems to inland waters. Using global data on in-lake CO2 production by mineralization as well as CO2 loss by emission, primary production, and carbonate precipitation in lakes, we estimated that the global lateral DIC export can lie within the range of 0.70+0.27−0.310.70−0.31+0.27 \\0.70\\_\\-0.31\\\\textasciicircum\\+0.27\\ to 1.52+1.09−0.901.52−0.90+1.09 \\1.52\\_\\-0.90\\\\textasciicircum\\+1.09\\ Pg C yr−1 depending on the assumed function of lakes. Thus, the considered lake function has a large effect on the calculated lateral DIC export from terrestrial ecosystems to inland waters. We conclude that more robust estimates of CO2 sinks and sources will require the classification of lakes into their predominant function. 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