Changes in topsoil characteristics with climate and island age in the agricultural zones of the Galápagos

•Particle size and soil organic carbon decreased with increasing weathering duration.•Al and Fe accumulated in older, highly weathered soils while base cations decreased.•Andic properties were expressed in the youngest soils studied.•Andic properties increased with elevation / moisture. The flora an...

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Published inGeoderma Vol. 376; p. 114534
Main Authors Dinter, Tamara C., Gerzabek, Martin H., Puschenreiter, Markus, Strobel, Bjarne W., Strahlhofer, Matthias, Couenberg, Paulina M., Zehetner, Franz
Format Journal Article
LanguageEnglish
Published Elsevier B.V 15.10.2020
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Abstract •Particle size and soil organic carbon decreased with increasing weathering duration.•Al and Fe accumulated in older, highly weathered soils while base cations decreased.•Andic properties were expressed in the youngest soils studied.•Andic properties increased with elevation / moisture. The flora and fauna of the Galápagos Islands have long been subject to scientific inquiry, but the soils have remained largely ignored until recently. The objective of this study was to assess the differences in main soil characteristics and nutrient reserves within and among the agricultural zones of islands Isabela, Santa Cruz and San Cristóbal to provide background information for informed agricultural decision making and a baseline against which future changes may be assessed. Aqua regia-extractable Al and Fe showed a general trend of accumulation with island age and increasing moisture levels within the agricultural zone, while base cations Ca, K, Mg and Na tended to decrease along the same gradients, with some variation likely due to agricultural inputs. Concentrations of silicon, aluminum and iron associated with amorphous constituents (Sio, Alo, Feo) tended to decrease with island age while iron in crystalline and non-crystalline hydrous oxides (Fed) showed a slight increase. Aluminum and iron in non-crystalline and organic complexes were more abundant in areas with higher precipitation. Electrical conductivity, pH in water, pH in sodium fluoride, phosphate retention, organic carbon content and particle size tended to decrease with island age while bulk density increased. Andic properties were expressed in all the soils of the youngest island studied, Isabela, and in higher-elevation soils of the intermediate-age Santa Cruz Island, while the soils of the oldest island studied, San Cristóbal, did not show andic properties and were dominated by crystalline clays and iron oxides. The wide range of soil development across the three islands requires soil management recommendations be tailored to each island and even within each island to ensure appropriate stewardship of this important natural resource.
AbstractList The flora and fauna of the Galápagos Islands have long been subject to scientific inquiry, but the soils have remained largely ignored until recently. The objective of this study was to assess the differences in main soil characteristics and nutrient reserves within and among the agricultural zones of islands Isabela, Santa Cruz and San Cristóbal to provide background information for informed agricultural decision making and a baseline against which future changes may be assessed. Aqua regia-extractable Al and Fe showed a general trend of accumulation with island age and increasing moisture levels within the agricultural zone, while base cations Ca, K, Mg and Na tended to decrease along the same gradients, with some variation likely due to agricultural inputs. Concentrations of silicon, aluminum and iron associated with amorphous constituents (Siₒ, Alₒ, Feₒ) tended to decrease with island age while iron in crystalline and non-crystalline hydrous oxides (Fed) showed a slight increase. Aluminum and iron in non-crystalline and organic complexes were more abundant in areas with higher precipitation. Electrical conductivity, pH in water, pH in sodium fluoride, phosphate retention, organic carbon content and particle size tended to decrease with island age while bulk density increased. Andic properties were expressed in all the soils of the youngest island studied, Isabela, and in higher-elevation soils of the intermediate-age Santa Cruz Island, while the soils of the oldest island studied, San Cristóbal, did not show andic properties and were dominated by crystalline clays and iron oxides. The wide range of soil development across the three islands requires soil management recommendations be tailored to each island and even within each island to ensure appropriate stewardship of this important natural resource.
•Particle size and soil organic carbon decreased with increasing weathering duration.•Al and Fe accumulated in older, highly weathered soils while base cations decreased.•Andic properties were expressed in the youngest soils studied.•Andic properties increased with elevation / moisture. The flora and fauna of the Galápagos Islands have long been subject to scientific inquiry, but the soils have remained largely ignored until recently. The objective of this study was to assess the differences in main soil characteristics and nutrient reserves within and among the agricultural zones of islands Isabela, Santa Cruz and San Cristóbal to provide background information for informed agricultural decision making and a baseline against which future changes may be assessed. Aqua regia-extractable Al and Fe showed a general trend of accumulation with island age and increasing moisture levels within the agricultural zone, while base cations Ca, K, Mg and Na tended to decrease along the same gradients, with some variation likely due to agricultural inputs. Concentrations of silicon, aluminum and iron associated with amorphous constituents (Sio, Alo, Feo) tended to decrease with island age while iron in crystalline and non-crystalline hydrous oxides (Fed) showed a slight increase. Aluminum and iron in non-crystalline and organic complexes were more abundant in areas with higher precipitation. Electrical conductivity, pH in water, pH in sodium fluoride, phosphate retention, organic carbon content and particle size tended to decrease with island age while bulk density increased. Andic properties were expressed in all the soils of the youngest island studied, Isabela, and in higher-elevation soils of the intermediate-age Santa Cruz Island, while the soils of the oldest island studied, San Cristóbal, did not show andic properties and were dominated by crystalline clays and iron oxides. The wide range of soil development across the three islands requires soil management recommendations be tailored to each island and even within each island to ensure appropriate stewardship of this important natural resource.
ArticleNumber 114534
Author Gerzabek, Martin H.
Dinter, Tamara C.
Puschenreiter, Markus
Couenberg, Paulina M.
Zehetner, Franz
Strahlhofer, Matthias
Strobel, Bjarne W.
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  givenname: Bjarne W.
  surname: Strobel
  fullname: Strobel, Bjarne W.
  organization: Department of Plant and Environmental Sciences, University of Copenhagen, Thorvaldsensvej 40, 1871 Frederiksberg C, Denmark
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  givenname: Paulina M.
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  givenname: Franz
  surname: Zehetner
  fullname: Zehetner, Franz
  email: franz.zehetner@boku.ac.at
  organization: Institute of Soil Research, University of Natural Resources and Life Sciences Vienna, Peter-Jordan-Str. 82, 1190 Vienna, Austria
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Keywords Volcanic ash soils
Elevation sequence
Andic properties
Agricultural soils
Age sequence
Galápagos Islands
Language English
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Snippet •Particle size and soil organic carbon decreased with increasing weathering duration.•Al and Fe accumulated in older, highly weathered soils while base cations...
The flora and fauna of the Galápagos Islands have long been subject to scientific inquiry, but the soils have remained largely ignored until recently. The...
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SubjectTerms Age sequence
Agricultural soils
agricultural zoning
altitude
aluminum
Andic properties
bulk density
climate
electrical conductivity
Elevation sequence
fauna
flora
Galápagos Islands
iron
organic carbon
particle size
phosphates
silicon
sodium fluoride
soil management
topsoil
Volcanic ash soils
Title Changes in topsoil characteristics with climate and island age in the agricultural zones of the Galápagos
URI https://dx.doi.org/10.1016/j.geoderma.2020.114534
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