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Coordinated responses of soil communities to elevation in three subarctic vegetation types. / Veen, G.F. (Corresponding author); De Long, Jonathan R. (Corresponding author); Kardol, P.; Sundqvist, Maja K.; Snoek, Basten; Wardle, D.A.

In: Oikos, Vol. 126, No. 11, 2017, p. 1586-1599.

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Veen, G.F. ; De Long, Jonathan R. ; Kardol, P. ; Sundqvist, Maja K. ; Snoek, Basten ; Wardle, D.A. / Coordinated responses of soil communities to elevation in three subarctic vegetation types. In: Oikos. 2017 ; Vol. 126, No. 11. pp. 1586-1599.

BibTeX

@article{500b093d120e49ebaa92b14982b4332c,
title = "Coordinated responses of soil communities to elevation in three subarctic vegetation types",
abstract = "Global warming has begun to have a major impact on the species composition and functioning of plant and soil communities. However, long-term community and ecosystem responses to increased temperature are still poorly understood. In this study, we used a well-established elevational gradient in northern Sweden to elucidate how plant, microbial and nematode communities shift with elevation and associated changes in temperature in three highly contrasting vegetation types (i.e. heath, meadow and Salix vegetation). We found that responses of both the abundance and composition of microbial and nematode communities to elevation differed greatly among the vegetation types. Within vegetation types, changes with elevation of plant, microbial and nematode communities were mostly linked at fine levels of taxonomic resolution, but this pattern disappeared when coarser functional group levels were considered. Further, nematode communities shifted towards more conservative nutrient cycling strategies with increasing elevation in heath and meadow vegetation. Conversely, in Salix vegetation microbial communities with conservative strategies were most pronounced at the mid-elevation. These results provide limited support for increasing conservative nutrient cycling strategies at higher elevation (i.e. with a harsher climate). Our findings indicate that climate-induced changes in plant community composition may greatly modify or counteract the impact of climate change on soil communities. Therefore, to better understand and predict ecosystem responses to climate change, it will be crucial to consider vegetation type and its specific interactions with soil communities.",
keywords = "international",
author = "G.F. Veen and {De Long}, {Jonathan R.} and P. Kardol and Sundqvist, {Maja K.} and Basten Snoek and D.A. Wardle",
note = "6274, TE; Data archiving: data archived at Dryad",
year = "2017",
doi = "10.1111/oik.04158",
language = "English",
volume = "126",
pages = "1586--1599",
journal = "Oikos",
issn = "0030-1299",
number = "11",

}

RIS

TY - JOUR

T1 - Coordinated responses of soil communities to elevation in three subarctic vegetation types

AU - Veen, G.F.

AU - De Long, Jonathan R.

AU - Kardol, P.

AU - Sundqvist, Maja K.

AU - Snoek, Basten

AU - Wardle, D.A.

N1 - 6274, TE; Data archiving: data archived at Dryad

PY - 2017

Y1 - 2017

N2 - Global warming has begun to have a major impact on the species composition and functioning of plant and soil communities. However, long-term community and ecosystem responses to increased temperature are still poorly understood. In this study, we used a well-established elevational gradient in northern Sweden to elucidate how plant, microbial and nematode communities shift with elevation and associated changes in temperature in three highly contrasting vegetation types (i.e. heath, meadow and Salix vegetation). We found that responses of both the abundance and composition of microbial and nematode communities to elevation differed greatly among the vegetation types. Within vegetation types, changes with elevation of plant, microbial and nematode communities were mostly linked at fine levels of taxonomic resolution, but this pattern disappeared when coarser functional group levels were considered. Further, nematode communities shifted towards more conservative nutrient cycling strategies with increasing elevation in heath and meadow vegetation. Conversely, in Salix vegetation microbial communities with conservative strategies were most pronounced at the mid-elevation. These results provide limited support for increasing conservative nutrient cycling strategies at higher elevation (i.e. with a harsher climate). Our findings indicate that climate-induced changes in plant community composition may greatly modify or counteract the impact of climate change on soil communities. Therefore, to better understand and predict ecosystem responses to climate change, it will be crucial to consider vegetation type and its specific interactions with soil communities.

AB - Global warming has begun to have a major impact on the species composition and functioning of plant and soil communities. However, long-term community and ecosystem responses to increased temperature are still poorly understood. In this study, we used a well-established elevational gradient in northern Sweden to elucidate how plant, microbial and nematode communities shift with elevation and associated changes in temperature in three highly contrasting vegetation types (i.e. heath, meadow and Salix vegetation). We found that responses of both the abundance and composition of microbial and nematode communities to elevation differed greatly among the vegetation types. Within vegetation types, changes with elevation of plant, microbial and nematode communities were mostly linked at fine levels of taxonomic resolution, but this pattern disappeared when coarser functional group levels were considered. Further, nematode communities shifted towards more conservative nutrient cycling strategies with increasing elevation in heath and meadow vegetation. Conversely, in Salix vegetation microbial communities with conservative strategies were most pronounced at the mid-elevation. These results provide limited support for increasing conservative nutrient cycling strategies at higher elevation (i.e. with a harsher climate). Our findings indicate that climate-induced changes in plant community composition may greatly modify or counteract the impact of climate change on soil communities. Therefore, to better understand and predict ecosystem responses to climate change, it will be crucial to consider vegetation type and its specific interactions with soil communities.

KW - international

UR - http://dx.doi.org/10.5061/dryad.d11rv

U2 - 10.1111/oik.04158

DO - 10.1111/oik.04158

M3 - Article

VL - 126

SP - 1586

EP - 1599

JO - Oikos

JF - Oikos

SN - 0030-1299

IS - 11

ER -

ID: 4107972