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Tropical Land‐Use Change Disrupts Zeta‐Diversity Across Taxa

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Tropical Land‐Use Change Disrupts Zeta‐Diversity Across Taxa. / Parra‐Sanchez, Edicson; Latombe, Guillaume; Mills, Simon C. et al.
In: Global Change Biology, Vol. 31, No. 5, e70245, 31.05.2025.

Research output: Contribution to Journal/MagazineJournal articlepeer-review

Harvard

Parra‐Sanchez, E, Latombe, G, Mills, SC, Socolar, JB, Edwards, FA, Martinez‐Revelo, D, Perez‐Escobar, OA, Davies, RW, Bousfield, CG, Cerullo, GR, Ochoa‐Quintero, JM, Haugaasen, T, Barlow, J, Freckleton, RP & Edwards, DP 2025, 'Tropical Land‐Use Change Disrupts Zeta‐Diversity Across Taxa', Global Change Biology, vol. 31, no. 5, e70245. https://doi.org/10.1111/gcb.70245

APA

Parra‐Sanchez, E., Latombe, G., Mills, S. C., Socolar, J. B., Edwards, F. A., Martinez‐Revelo, D., Perez‐Escobar, O. A., Davies, R. W., Bousfield, C. G., Cerullo, G. R., Ochoa‐Quintero, J. M., Haugaasen, T., Barlow, J., Freckleton, R. P., & Edwards, D. P. (2025). Tropical Land‐Use Change Disrupts Zeta‐Diversity Across Taxa. Global Change Biology, 31(5), Article e70245. Advance online publication. https://doi.org/10.1111/gcb.70245

Vancouver

Parra‐Sanchez E, Latombe G, Mills SC, Socolar JB, Edwards FA, Martinez‐Revelo D et al. Tropical Land‐Use Change Disrupts Zeta‐Diversity Across Taxa. Global Change Biology. 2025 May 31;31(5):e70245. Epub 2025 May 14. doi: 10.1111/gcb.70245

Author

Parra‐Sanchez, Edicson ; Latombe, Guillaume ; Mills, Simon C. et al. / Tropical Land‐Use Change Disrupts Zeta‐Diversity Across Taxa. In: Global Change Biology. 2025 ; Vol. 31, No. 5.

Bibtex

@article{35490979f3cd4dbe9252193008879051,
title = "Tropical Land‐Use Change Disrupts Zeta‐Diversity Across Taxa",
abstract = "Land‐use change causes community turnover via local extinction and colonisation of species, driving biotic homogenization or heterogenization at larger spatial scales. Quantification of these processes has focused on beta‐diversity metrics, which upweight rarity and overlook the role of widespread species. A key knowledge gap is understanding the impact of land‐use change on both rare and widespread species—zeta‐diversity—allowing the detection of statistical patterns and drivers based on community turnover across space. We sampled bird, dung beetle, and orchid communities in 341 plots across natural (Andean forests and paramo) and transformed habitats (pasturelands) spanning ~270 km north‐to‐south in the Colombian Andes. We detected major losses in species richness following land‐use conversion, which disrupts zeta‐diversity across elevation in two ways. First, biodiversity patterns are rewired such that bird and dung beetle communities become structured by dispersal ability, overriding the effects of natural biogeographical drivers (i.e., elevation) and landscape conditions (i.e., canopy cover). Second, land‐use change causes biotic homogenization across bird communities, with pasture retaining twice as many widespread species than natural habitats, and a four‐fold reduction in widespread dung beetle species pointing to subtractive heterogenization. Orchid communities show high community turnover in both natural and transformed habitat. Our results show that the effect of local deforestation has a doubly devastating impact simplifying communities and reducing widespread species. Transforming natural habitats into anthropogenic landscapes may substantially raise extinction risk for communities composed of both widespread and rare species, especially in orchids as the most sensitive taxon.",
keywords = "tropical Andes, deforestation, habitat loss, community assembly, montane ecosystems, rarity",
author = "Edicson Parra‐Sanchez and Guillaume Latombe and Mills, {Simon C.} and Socolar, {Jacob B.} and Edwards, {Felicity A.} and Diego Martinez‐Revelo and Perez‐Escobar, {Oscar A.} and Davies, {Robert W.} and Bousfield, {Christopher G.} and Cerullo, {Gianluca R.} and Ochoa‐Quintero, {Jose Manuel} and Torbj{\o}rn Haugaasen and Jos Barlow and Freckleton, {Robert P.} and Edwards, {David P.}",
year = "2025",
month = may,
day = "14",
doi = "10.1111/gcb.70245",
language = "English",
volume = "31",
journal = "Global Change Biology",
issn = "1354-1013",
publisher = "Blackwell Publishing Ltd",
number = "5",

}

RIS

TY - JOUR

T1 - Tropical Land‐Use Change Disrupts Zeta‐Diversity Across Taxa

AU - Parra‐Sanchez, Edicson

AU - Latombe, Guillaume

AU - Mills, Simon C.

AU - Socolar, Jacob B.

AU - Edwards, Felicity A.

AU - Martinez‐Revelo, Diego

AU - Perez‐Escobar, Oscar A.

AU - Davies, Robert W.

AU - Bousfield, Christopher G.

AU - Cerullo, Gianluca R.

AU - Ochoa‐Quintero, Jose Manuel

AU - Haugaasen, Torbjørn

AU - Barlow, Jos

AU - Freckleton, Robert P.

AU - Edwards, David P.

PY - 2025/5/14

Y1 - 2025/5/14

N2 - Land‐use change causes community turnover via local extinction and colonisation of species, driving biotic homogenization or heterogenization at larger spatial scales. Quantification of these processes has focused on beta‐diversity metrics, which upweight rarity and overlook the role of widespread species. A key knowledge gap is understanding the impact of land‐use change on both rare and widespread species—zeta‐diversity—allowing the detection of statistical patterns and drivers based on community turnover across space. We sampled bird, dung beetle, and orchid communities in 341 plots across natural (Andean forests and paramo) and transformed habitats (pasturelands) spanning ~270 km north‐to‐south in the Colombian Andes. We detected major losses in species richness following land‐use conversion, which disrupts zeta‐diversity across elevation in two ways. First, biodiversity patterns are rewired such that bird and dung beetle communities become structured by dispersal ability, overriding the effects of natural biogeographical drivers (i.e., elevation) and landscape conditions (i.e., canopy cover). Second, land‐use change causes biotic homogenization across bird communities, with pasture retaining twice as many widespread species than natural habitats, and a four‐fold reduction in widespread dung beetle species pointing to subtractive heterogenization. Orchid communities show high community turnover in both natural and transformed habitat. Our results show that the effect of local deforestation has a doubly devastating impact simplifying communities and reducing widespread species. Transforming natural habitats into anthropogenic landscapes may substantially raise extinction risk for communities composed of both widespread and rare species, especially in orchids as the most sensitive taxon.

AB - Land‐use change causes community turnover via local extinction and colonisation of species, driving biotic homogenization or heterogenization at larger spatial scales. Quantification of these processes has focused on beta‐diversity metrics, which upweight rarity and overlook the role of widespread species. A key knowledge gap is understanding the impact of land‐use change on both rare and widespread species—zeta‐diversity—allowing the detection of statistical patterns and drivers based on community turnover across space. We sampled bird, dung beetle, and orchid communities in 341 plots across natural (Andean forests and paramo) and transformed habitats (pasturelands) spanning ~270 km north‐to‐south in the Colombian Andes. We detected major losses in species richness following land‐use conversion, which disrupts zeta‐diversity across elevation in two ways. First, biodiversity patterns are rewired such that bird and dung beetle communities become structured by dispersal ability, overriding the effects of natural biogeographical drivers (i.e., elevation) and landscape conditions (i.e., canopy cover). Second, land‐use change causes biotic homogenization across bird communities, with pasture retaining twice as many widespread species than natural habitats, and a four‐fold reduction in widespread dung beetle species pointing to subtractive heterogenization. Orchid communities show high community turnover in both natural and transformed habitat. Our results show that the effect of local deforestation has a doubly devastating impact simplifying communities and reducing widespread species. Transforming natural habitats into anthropogenic landscapes may substantially raise extinction risk for communities composed of both widespread and rare species, especially in orchids as the most sensitive taxon.

KW - tropical Andes

KW - deforestation

KW - habitat loss

KW - community assembly

KW - montane ecosystems

KW - rarity

U2 - 10.1111/gcb.70245

DO - 10.1111/gcb.70245

M3 - Journal article

VL - 31

JO - Global Change Biology

JF - Global Change Biology

SN - 1354-1013

IS - 5

M1 - e70245

ER -